Attrition phenomena relevant to fluidized bed combustion and gasification systems

Fluidized Bed Technologies for Near-Zero Emission Combustion and Gasification

Volumn , Issue , 2013, Pages 254-315

  Scala, F ^a   Chirone, R ^a   Salatino, P ^b  

^a CNR   (Italy)

^b UNIVERSITY OF NAPLES FEDERICO II   (Italy)

Author keywords

Attrition; Combustion; Fluidized bed; Fragmentation; Fuel; Gasification; Sorbent

Indexed keywords

BALLAST (RAILROAD TRACK); CHEMICAL ANALYSIS; COMBUSTION; FLUIDIZED BED COMBUSTORS; FLUIDIZED BEDS; FUELING; FUELS; GASIFICATION; SORBENTS; SURVEYS;

ATTRITION; BALLAST MATERIALS; CARBONATE LOOPING; CHEMICAL LOOPING COMBUSTION; FRAGMENTATION; MUTUAL INTERACTION; POPULATION BALANCE MODELS; SORBENT MATERIALS;

FLUIDIZED BED COMBUSTION;

EID: 84902417052     PISSN: None     EISSN: None     Source Type: Book    
DOI: 10.1533/9780857098801.1.254     Document Type: Chapter

References (260)

1. Adanez J., Gayan P., de Diego L.F., Garcia-Labiano F., Abad A. Combustion of wood chips in a CFBC. Modeling and validation. Industrial and Engineering Chemistry Research 2003, 42:987-999.
2. 2 emissions in chemical-looping combustion. Industrial and Engineering Chemistry Research 2006, 45:2617-2625.
3. Ammendola P., Scala F. Attrition of lignite char during fluidized bed gasification. Experimental Thermal and Fluid Science 2012, 43:9-12.
4. Ammendola P., Chirone R., Miccio F., Ruoppolo G., Scala F. Attrition of bed materials and fuel pellets for fluidized bed gasification application. Fluidization XIII 2010, 575-582. Engineering Conferences International, New York. S.D. Kim, Y. Kang, J.K. Lee, Y.C. Seo (Eds.).
5. Ammendola P., Chirone R., Miccio F., Ruoppolo G., Scala F. Devolatilization and attrition behavior of fuel pellets during fluidized bed gasification. Energy and Fuels 2011, 25:1260-1266.
6. Ammendola P., Chirone R., Ruoppolo G., Scala F. The effect of pelletization on the attrition of wood under fluidized bed combustion and gasification conditions 2013, 34:808-813.
7. Andrei M.A., Sarofim A.F., Beer J.M. Time-resolved burnout of coal particles in a fluidized bed. Combustion and Flame 1985, 61:17-27.
8. Anthony E.J., Granatstein D.L. Sulfation phenomena in fluidized bed combustion systems. Progress in Energy and Combustion Science 2001, 27:215-236.
9. Arena U., Mastellone M.L. A systematic approach to fixed carbon balance during the fluidized bed combustion of a packaging-derived fuel. Powder Technology 2000, 110:110-116.
10. Arena U., D'Amore M., Massimilla L. Carbon attrition during the fluidized combustion of a coal. AIChE Journal 1983, 29:40-49.
11. Arena U., Chirone R., D'Amore M., Massimilla L. Carbon attrition in the fluidized combustion of a metallurgical coke. Combustion and Flame 1984, 57:123-125.
12. Arena U., D'Amore M., Massimilla L., Meo S., Miccio M. Evaluation of attrition rate constants of char burning in fluidized beds by means of laboratory-scale combustors. AIChE Journal 1986, 32:869-871.
13. Arena U., Cammarota A., Massimilla L., Siciliano L., Basu P. Carbon attrition during the combustion of a char in a circulating fluidized bed. Combustion Science and Technology 1990, 73:383-394.
14. Arena U., Malandrino A., Massimilla L. Modelling of circulating fluidized bed combustion of a char. The Canadian Journal of Chemical Engineering 1991, 69:860-868.
15. Arena U., Cammarota A., Chirone R., Massimilla L. Secondary fragmentation of a char in a circulating fluidized bed combustor 1992, 24:1341-1348.
16. Arena U., Cammarota A., Chirone R. Primary and secondary fragmentation of coals in a circulating fluidized bed combustor 1994, 25:219-226.
17. Arena U., Cammarota A., Chirone R. Fragmentation and attrition during the fluidized bed combustion of two waste-derived fuels. Fluidization VIII 1995, 437-444. Engineering Foundation, New York. J.-F. Large, C. Laguerie (Eds.).
18. Arena U., Cammarota A., Chirone R., D'Anna G. Comminution phenomena during the fluidized bed combustion of a commercial refuse-derived fuel 1995, 943-949. Orlando, Florida.
19. Arena U., Chirone R., D'Amore M., Miccio M., Salatino P. Some issues in modelling bubbling and circulating fluidized-bed coal combustors. Powder Technology 1995, 82:301-316.
20. Arena U., Chirone R., Salatino P. The fate of fixed carbon during the fluidized-bed combustion of a coal and two waste-derived fuels 1996, 26:3243-3251.
21. Arena U., Cammarota A., Mastellone M.L. The phenomenology of comminution in the fluidized bed combustion of packaging-derived fuels. Fuel 1998, 77:1185-1193.
22. Artos V., Pis J.J., Fuertes A.B., Hoffman J., Marban G., Canibano J. Fluidized bed combustion of high ash spanish coals 1991, 1407-1413.
23. Ayazi Shamlou P., Liu Z., Yates J.G. Hydrodynamic influences on particle breakage in fluidized beds. Chemical Engineering Science 1990, 45:809-817.
24. Baek J.-I., Ryu C.K., Ryu J., Kim J.-W., Eom T.H., Lee J.B., Yi J. Performance comparison of spray-dried oxygen carriers: the effect of NiO and Pseudoboehmite content in raw materials. Energy and Fuels 2010, 24:5757-5764.
25. Baek J.-I., Ryu J., Lee J.B., Eom T.-H., Kim K.-S., Yang S.-R., Ryu C.K. Highly attrition resistant oxygen carriers for chemical looping combustion. Energy Procedia 2011, 4:349-355.
26. Bareschino P., Marzocchella A., Salatino P., Cammarota A., Chirone R. Segregation and attrition of polydisperse solids in a circulating fluidized bed. Circulating Fluidized Bed Technology VIII 2005, 224-230. International Academic Publishers, Beijing. K. Cen (Ed.).
27. Barletta D., Marzocchella A., Salatino P., Kang S.G., Stromberg P.T. Modelling fuel and sorbent attrition during circulating fluidized bed combustion of coal 2003, 341-351.
28. Beer J.M., Massimilla L., Sarofim A.F. Fluidised coal combustion: the effect of coal type on carbon load and carbon elutriation. Institute of Energy Symposium Series 4: Fluidized Combustion, Systems and Applications 1980, IV.5.1-IV.5.10.
29. Bemrose C.R., Bridgewater J. A review of attrition and attrition test methods. Powder Technology 1987, 49:97-126.
30. 2 capture. Energy and Fuels 2010, 24:4605-4616.
31. 2 capture from stationary sources 2011, 33:2673-2681.
32. Blinichev V.N., Strel'tsov V.V., Lebedeva E.S. An investigation of the size reduction of granular materials during their processing in fluidized beds. International Chemical Engineering 1968, 8:615-618.
33. Boerefijn R., Gudde N.J., Ghadiri M. A review of attrition of fluid cracking catalyst particles. Advanced Powder Technology 2000, 11:145-174.
34. Bouhafid A., Vantelon J.P. The impact of thermal pre-treatment on oil shale attrition and fragmentation in fluidized bed combustion. Experimental Thermal and Fluid Science 2004, 28:677-682.
35. Brown R.C., Ahrens J., Christofides N. The contributions of attrition and fragmentation to char elutriation from fluidized beds. Combustion and Flame 1992, 89:95-102.
36. Brown T.A., Scala F., Scott S.A., Dennis J.S., Salatino P. The attrition behaviour of oxygen-carriers under inert and reacting conditions. Chemical Engineering Science 2012, 71:449-467.
37. Cammarota A., Chirone R., D'Amore M., Massimilla L. Carbon attrition during the fluidized combustion of coals 1985, 43-52.
38. Cammarota A., Chirone R., Marzocchella A., Salatino P. Assessment of ash inventory and size distribution in fluidized bed coal combustors 2001.
39. Cammarota A., Chirone R., Marzocchella A., Salatino P. The relevance of attrition phenomena to the establishment of bed solids inventory and particle size distribution in circulating fluidized bed coal combustors. Circulating Fluidized Bed Technology VII 2002, 661-668. Canadian Society for Chemical Engineering, Ottawa, Canada. H. de Lasa (Ed.).
40. Cammarota A., Chirone R., Salatino P., Scala F., Urciuolo M. Attrition phenomena during fluidized bed combustion of granulated and mechanically dewatered sewage sludges 2005, 30:3017-3024.
41. Cammarota A., Chirone R., Salatino P., Urciuolo M. Controlling bed solids inventory and PSD during fluidized bed combustion of solid fuels: the role of the primary ash PSD. Journal of the Chinese Institution of Chemical Engineers 2005, 36:285-293.
42. Campbell C.S., Wang D.G. Particle pressures in gas-fluidized beds. Journal of Fluid Mechanics 1991, 227:495-508.
43. Campbell E.K., Davidson J.F. The combustion of coal in fluidised beds. Institute of Fuel Symposium Series 1: Fluidized Bed Combustion 1975, A2.1-A2.9.
44. Canò G., Salatino P., Scala F. A single particle model of the fluidized bed combustion of a char particle with a coherent ash skeleton: application to granulated sewage sludge. Fuel Processing Technology 2007, 88:577-584.
45. Chandran R.R., Duqum J.N. Attrition characteristics relevant for fluidized-bed combustion. Fluidization VI 1989, 571-580. Engineering Foundation, New York. J.R. Grace, L.W. Shemilt, M.A. Bergougnou (Eds.).
46. 2 capture in a 10 kWth dual fluidized bed. International Journal of Greenhouse Gas Control 2010, 4:776-784.
47. 2 capture and attrition performance of CaO pellets with aluminate cement under pressurized carbonation. Applied Energy 2012, 91:334-340.
48. Chen W.-Y., Nagarajan G., Zhang Z.-P., Shen B.-C., Fan L.T. Stochastic modeling of devolatilization-induced coal fragmentation during fluidized-bed combustion. Industrial and Engineering Chemistry Research 1994, 33:137-145.
49. Chen Z., Lim C.J., Grace J.R. Study of limestone particle impact attrition. Chemical Engineering Science 2007, 62:867-877.
50. Chen Z., Grace J.R., Lim C.J. Limestone particle attrition and size distribution in a small circulating fluidized bed. Fuel 2008, 87:1360-1371.
51. Chirone R., Massimilla L. Primary fragmentation of a coal in fluidized bed combustion 1988, 22:267-277.
52. Chirone R., Massimilla L. The application of Weibull theory to primary fragmentation of a coal during devolatilization. Powder Technology 1989, 57:197-212.
53. Chirone R., Massimilla L. Primary fragmentation in fluidized bed combustion of anthracites. Powder Technology 1991, 64:249-258.
54. Chirone R., Cammarota A., D'Amore M., Massimilla L. Fragmentation and attrition in the fluidized combustion of a coal 1982, 1023-1029.
55. Chirone R., D'Amore M., Massimilla L., Salatino P. The efficiency of fluidized combustion of carbons of various characteristics 1984, 313-335.
56. Chirone R., D'Amore M., Massimilla L. Carbon attrition in the fluidized combustion of a petroleum coke 1984, 20:1505-1511.
57. Chirone R., D'Amore M., Massimilla L., Mazza A. Char attrition during the batch fluidized bed combustion of a coal. AIChE Journal 1985, 31:812-820.
58. Chirone R., Salatino P., Massimilla L. Secondary fragmentation of char particles during combustion in a fluidized bed. Combustion and Flame 1989, 77:79-90.
59. Chirone R., Massimilla L., Salatino P. Comminution of carbons in fluidized bed combustion. Progress in Energy and Combustion Science 1991, 17:297-326.
60. Chirone R., Masi S., Salatino P., D'Amore M. The influence of coal macerals on carbon attrition during the fluidized bed combustion of coal char. Combustion Science and Technology 1992, 83:135-143.
61. Chirone R., Salatino P., Scala F. The relevance of attrition to the fate of ashes during fluidized bed combustion of a biomass 2000, 28:2279-2286.
62. Chirone R., Salatino P., Scala F., Solimene R., Urciuolo M. Fluidized bed combustion of pelletized biomass and waste-derived fuels. Combustion and Flame 2008, 155:21-36.
63. 2 adsorption of dry sorbents in fluidized bed. Studies in Surface Science and Catalysis 2006, 159:549-552.
64. Choung Y.H., Cho K.C., Choi W.J., Kim S.G., Han Y.S., Oh K.J. Attrition of sewage sludge and sludge-based char in a fluidized bed reactor. Korean Journal of Chemical Engineering 2007, 24:660-663.
65. Chraibi M.A., Flamant G. Kinetic, thermal and chemical attrition of manganese chloride particles in a fluidized bed. Powder Technology 1989, 59:97-107.
66. Chu C.-Y., Hsueh K.-W., Hwang S.-J. Sulfation and attrition of calcium sorbent in a bubbling fluidized bed. Journal of Hazardous Materials 2000, B80:119-133.
67. Chu C.-Y., Hwang S.J. Attrition and sulfation of calcium sorbent and solid circulation rate in an internally circulating fluidized bed. Powder Technology 2002, 127:185-195.
68. Cook J.L., Khang S.-J., Lee S.-K., Keener T.C. Attrition and changes in particle size distribution of lime sorbents in a circulating fluidized bed absorber. Powder Technology 1996, 89:1-8.
69. 2 capture. Combustion Science and Technology 2012, 184:929-941.
70. 2 capture capacity. Chemical Engineering Journal 2012, 207-208:445-449.
71. 2 capture 2012, 413-420.
72. Coppola A., Montagnaro F., Salatino P., Scala F. Water reactivation of spent sorbents from a calcium looping process 2012, 429-436.
73. Couturier M.F., Karidio I., Steward F.R. Study on the rate of breakage of various Canadian limestones in a circulating transport reactor. Circulating Fluidized Bed Technology IV 1993, 672-678. AIChE, New York. A.A. Avidan (Ed.).
74. Cuadrat A., Abad A., Adanez J., de Diego L.F., Garcia-Labiano F., Gayan P. Behavior of ilmenite as oxygen carrier in chimica-looping combustion. Fuel Processing Technology 2012, 94:101-112.
75. Cui Y., Stubington J.F. In-bed char combustion of Australian coals in PFBC. 3. Secondary fragmentation. Fuel 2001, 80:2245-2251.
76. Cui Z., Han X., Jiang X., Liu J. Experiment and neural network model of primary fragmentation of oil shale in fluidized bed. Oil Shale 2009, 26:114-124.
77. Dacombe P., Pourkashanian M., Williams A., Yap L. Combustion-induced fragmentation behavior of isolated coal particles. Fuel 1999, 78:1847-1857.
78. Dakic D. Mathematical simulation of coal fragmentation during devolatilization in fluidized bed 1991, 1325-1330.
79. Dakic D., van der Honing G., Valk M. Fragmentation and swelling of various coals during devolatilization in a fluidized bed. Fuel 1989, 68:911-916.
80. D'Amore M., Donsì G., Massimilla L. Bed carbon loading and particle size distribution in fluidized combustion of fuels of various reactivity 1980, 675-684.
81. Devi L., Craje M., Thüne P., Ptasinski K.J., Janssen F.J.J.G. Olivine as tar removal catalyst for biomass gasifiers: catalyst characterization. Applied Catalysis A: General 2005, 294:68-79.
82. Di Benedetto A., Salatino P. Modelling attrition of limestone during calcination and sulfation in a fluidized bed reactor. Powder Technology 1998, 95:119-128.
83. Donsì G., Massimilla L., Miccio M. Carbon fines production and elutriation from the bed of a fluidized coal combustor. Combustion and Flame 1981, 41:57-69.
84. 2 capture from flue gases using a dual fluidized bed reactor with calcium-based sorbent. Industrial and Engineering Chemistry Research 2009, 48:11140-11147.
85. Feng B., Bhatia S.K. Percolative fragmentation of char particles during gasification. Energy and Fuels 2000, 14:297-307.
86. Fennell P.S., Pacciani R., Dennis J.S., Davidson J.F., Hayhurst A.N. The effects of repeated cycles of calcination and carbonation on a variety of different limestones, as measured in a hot fluidized bed of sand. Energy and Fuels 2007, 21:2072-2081.
87. Forsythe W.L., Hertwig W.R. Attrition characteristics of fluid cracking catalysts. Laboratory studies. Industrial and Engineering Chemistry 1949, 41:1200-1206.
88. Franceschi J., Kolar A., Miller G., Zakkay V., Ho C., Skelley W., Hakim S. Natural sorbent attrition studies related to fluidized bed coal combustion 1980, 1028-1043.
89. Fuertes A.B., Marban G. Modelling gasification reactions including the percolation phenomenon. Chemical Engineering Science 1994, 49:3813-3821.
90. Galgano A., Salatino P., Crescitelli S., Scala F., Maffettone P.L. A model of the dynamics of a fluidized bed combustor burning biomass. Combustion and Flame 2005, 140:371-384.
91. Gavalas G.R. A random capillary model with application to char gasification at chemically controlled rates. AIChE Journal 1980, 26:577-585.
92. Gayan P., de Diego L.F., Garcia-Labiano F., Adanez J., Abad A., Dueso C. Effect of support on reactivity and selectivity of Ni-based oxygen carriers for chemical-looping combustion. Fuel 2008, 87:2641-2650.
93. 3 oxygen carriers for chemical-looping combustion prepared by impregnation and deposition-precipitation methods. Fuel 2009, 88:1016-1023.
94. Ghadiri M., Boerefijn R. A model of attrition in the jetting region of fluidised beds. Kona Powder and Particle 1996, 14:5-15.
95. Ghadiri M., Zhang Z. Impact attrition of particulate solids. Part 1. A theoretical model of chipping. Chemical Engineering Science 2002, 57:3659-3669.
96. Gibbs B.M., Hedley A.B. Combustion of large coal particles in a fluidised bed. Fluidization 1978, 235-240. Cambridge University Press, London. J.F. Davidson, D.L. Keairns (Eds.).
97. Gil J., Caballero M.A., Martin J.A., Aznar M.-P., Corella J. Biomass gasification with air in a fluidized bed: effect of the in-bed use of dolomite under different operating conditions. Industrial and Engineering Chemistry Research 1999, 38:4226-4235.
98. Giordano M. Primary fragmentation of swelling coals in fluidized bed combustion 1995, University 'Federico II' of Naples, Italy, PhD thesis (in Italian).
99. 2 from flue gases. Fuel 2010, 89:2918-2924.
100. Halder P.K., Salatino P., Arena U. Attrition of spherical electrode carbon particles during batch fluidized combustion. The Canadian Journal of Chemical Engineering 1988, 66:163-167.
101. Hartge E.-U., Klett C., Werther J. Dynamic simulation of the particle size distribution in a circulating fluidized bed combustor. Chemical Engineering Science 2007, 62:281-293.
102. Hartman M., Svoboda K., Pohorelý M., šyc M., Jeremiáš M. Attrition of dolomitic lime in a fluidized-bed reactor at high temperatures. Chemical Papers 2013, 67:164-172.
103. Hastaoglu M.A., Kahraman R., Syed M.Q. Pellet breakup due to pressure generated during wood pyrolysis. Industrial and Engineering Chemistry Research 2000, 39:3255-3263.
104. Horio M., Hoshiba M., Oyama T. Prediction of the effect of coal type on fluidized-bed combustion efficiency 1985, 130-139.
105. Horio M., Iwadate Y., Sugaya T. Particle normal stress distribution around a rising bubble in a fluidized bed. Powder Technology 1998, 96:148-157.
106. Hu N., Scaroni A.W. Fragmentation of calcium-based sorbents under high heating rate, short residence time conditions. Fuel 1995, 74:374-382.
107. Hutchings I.M. Mechanisms of wear in powder technology: a review. Powder Technology 1993, 76:3-13.
108. Ikeda S., Tatebayashi J., Yano K., Yutani S. Fluidized-bed combustion of coal: effects of various parameters on combustion efficiency. Fluidization IV 1983, 499-505. Engineering Foundation, New York. D. Kunii, R. Toei (Eds.).
109. Jia L., Becker H.A., Code R.K. Devolatilization and char burning of coal particles in a fluidized bed combustor. The Canadian Journal of Chemical Engineering 1993, 71:10-19.
110. Jia L., Hughes R., Lu D., Anthony E.J., Lau I. Attrition of calcining limestones in circulating fluidized-bed systems. Industrial and Engineering Chemistry Research 2007, 46:5199-5209.
111. Jiang X., Zhou L., Liu J., Han X. A model on attrition of quartzite particles as a bed material in fluidized beds. Powder Technology 2009, 195:44-49.
112. Johnsen K., Grace J.R. High-temperature attrition of sorbents and a catalyst for sorption-enhanced steam methane reforming in a fluidized bed environment. Powder Technology 2007, 173:200-202.
113. Jung Y., Park D. Fluidized bed combustion of high ash anthracite: analysis of combustion efficiency and particle size distribution. Korean Journal of Chemical Engineering 1988, 5:109-115.
114. Kallio S., Konttinen J., Kilpinen P. Effects of char inventory and size distribution on nitric oxide formation in CFB combustion of coal. Fluidization XI 2004, 827-834. United Engineering Foundation, New York. U. Arena, R. Chirone, M. Miccio, P. Salatino (Eds.).
115. Kalman H. Attrition of powders and granules at various bends during pneumatic conveying. Powder Technology 2000, 112:244-250.
116. Karri S.B.R., Werther J. Gas distributor and plenum design in fluidized beds. Handbook of Fluidization and Fluid-Particle Systems 2003, 164-179. Marcel Dekker, New York, Chap. 6. W.C. Yang (Ed.).
117. Kerstein A.R., Edwards B.F. Percolation model for simulation of char oxidation and fragmentation time-histories. Chemical Engineering Science 1987, 42:1629-1634.
118. Kerstein A.R., Niksa S. Fragmentation during carbon conversion: predictions and measurements 1984, 20:941-948.
119. Klett C., Hartge E.-U., Werther J. Time-dependent behavior of the ash particle size distribution in a circulating fluidized bed system 2005, 30:2947-2954.
120. Kokkoris A., Turton R. The reduction of attrition in fluidized beds by the addition of solid lubricants. AIChE Symposium Series 281 1991, 87:20-31.
121. Kokkoris A., Turton R. A phenomenological model predicting the attrition and the reduction of attrition due to the addition of solid lubricants in slugging beds. Powder Technology 1995, 84:39-47.
122. Kono H. Attrition rates of relatively coarse solid particles in various types of fluidized beds. AIChE Symposium Series 205 1981, 77:96-106.
123. Kramp M., Thon A., Hartge E.-U., Heinrich S., Werther J. The role of attrition and solids recovery in a chemical looping combustion process. Oil & Gas Science and Technology 2011, 66:277-290.
124. Lee J.M., Kim J.S., Kim J.J. Comminution characteristics of Korean anthracite in a CFB reactor. Fuel 2003, 82:1349-1357.
125. Lee S.-K., Jiang X., Keener T.C., Khang S.J. Attrition of lime sorbents during fluidization in a circulating fluidized bed absorber. Industrial and Engineering Chemistry Research 1993, 32:2758-2766.
126. Li D., Zhong F., Guo Q., Lu J., Zhang J., Yue G. Properties of flash hydrated and agglomerated particles of CFB fly ashes. Fuel Processing Technology 2007, 88:215-220.
127. 2 capture and attrition characteristics of a CaO/bio-based sorbent. Fuel 2012, 93:258-263.
128. Lin C.-L., Wey M.-Y. Effects of high temperature and combustion on fluidized material attrition in a fluidized bed. Korean Journal of Chemical Engineering 2003, 20:1123-1130.
129. Lin C.-L., Wey M.-Y. Influence of hydrodynamic parameters on particle attrition during fluidization at high temperature. Korean Journal of Chemical Engineering 2005, 22:154-160.
130. 2O emissions from biomass-fired circulating fluidized bed combustors. Fuel 2002, 81:271-280.
131. Liu J., Jiang X., Zhou L., Wang H., Han X. Thermal stress-induced fragmentation of quartzite particles in a hot fluidized bed. Chemical Engineering and Processing 2009, 48:507-514.
132. 2 capture in pilot-scale dual fluidized beds. Fuel Processing Technology 2008, 89:1386-1395.
133. Lupiáñez C., Scala F., Salatino P., Romeo L.M., Díez L.I. Primary fragmentation of limestone under oxy-firing conditions in a bubbling fluidized bed. Fuel Processing Technology 2011, 92:1449-1456.
134. Lyngfelt A., Leckner B. Sorbent size reduction and conversion versus particle size in fluidized bed boilers. FBC Technology and the Environmental Challenge 1991, 179-190. Adam Hilger, London.
135. Magrini-Bair K.A., Czernik S., French R., Parent Y.O., Chornet E., Dayton D.C., Feik C., Bain R. Fluidizable reforming catalyst development for conditioning biomass-derived syngas. Applied Catalysis A: General 2007, 318:199-206.
136. 2 capture. Industrial and Engineering Chemistry Research 2011, 50:12384-12391.
137. Marban G., Fuertes A.B. Influence of percolation on the modification of overall particle properties during gasification of porous solids. Chemical Engineering Science 1997, 52:1-11.
138. Marban G., Pis J.J., Fuertes A.B. Characterizating fuels for atmospheric fluidized bed combustion. Combustion and Flame 1995, 103:41-58.
139. Marban G., Pis J.J., Fuertes A.B. Simulation of secondary fragmentation during fluidized bed combustion of char particles. Powder Technology 1996, 89:71-78.
140. Massimilla L., Salatino P. A theoretical approach to the characterization of carbon attrition in a fluidized bed combustor. Chemical Engineering Communications 1987, 62:285-301.
141. Mastellone M.L., Arena U. Carbon attrition during the circulating fluidized bed combustion of a packaging-derived fuel. Combustion and Flame 1999, 117:562-573.
142. 2 superheating as a low-attrition steam reactivation method for CaO in calcium looping applications. Industrial and Engineering Chemistry Research 2010, 49:12429-12434.
143. Mendiara T., Abad A., de Diego L.F., Garcia-Labiano F., Gayan P., Adanez J. Use of an Fe-based residue from alumina production as an oxygen carrier in chemical-looping combustion. Energy and Fuels 2012, 26:1420-1431.
144. Merrick D., Highley J. Particle size reduction and elutriation in a fluidized bed process. AIChE Symposium Series 137 1974, 70:366-378.
145. Miccio F., Salatino P. Monte-Carlo simulation of combustion-induced percolative fragmentation of carbons 1992, 24:1145-1151.
146. Miccio F., Moersch O., Spliethoff H., Hein K.R.G. Generation and conversion of carbonaceous fine particles during bubbling fluidized bed gasification of a biomass fuel. Fuel 1999, 78:1473-1481.
147. Mohanty K.K., Ottino J.M., Davis H.T. Reaction and transport in disordered composite media: introduction of percolation concepts. Chemical Engineering Science 1982, 37:905-924.
148. Montagnaro F., Scala F., Salatino P. The influence of sorbent properties and reaction temperature on sorbent attrition, sulfur uptake and particle sulfation pattern during fluidized bed desulfurization. Combustion Science and Technology 2002, 174(11-12):151-169.
149. Montagnaro F., Salatino P., Scala F., Bernardo G., Valenti G.L. Assessment of ettringite from hydrated FBC residues as a sorbent for fluidized bed desulphurization. Fuel 2003, 82:2299-2307.
150. Montagnaro F., Scala F., Salatino P. Reactivation by water hydration of spent sorbent for fluidized bed combustion application: the influence of hydration time. Industrial and Engineering Chemistry Research 2004, 43:5692-5701.
151. Montagnaro F., Salatino P., Bernardo G., Telesca A., Valenti G.L. Reuse of fly ash from a fluidized bed combustor for sulfur uptake: The role of ettringite in hydration-induced reactivation. Energy and Fuels 2005, 19:1822-1827.
152. 2 capture in FBC. AIChE Journal 2006, 52:4090-4098.
153. 2 capture. Powder Technology 2008, 180:129-134.
154. Montagnaro F., Salatino P., Scala F. The influence of temperature on limestone sulfation and attrition under fluidized bed combustion conditions. Experimental Thermal & Fluid Science 2010, 34:352-358.
155. 2 sorbents on their impact fragmentation in fluidized bed combustors. Chemical Engineering Journal 2010, 162:1067-1074.
156. Montagnaro F., Salatino P., Scala F., Urciuolo M. A population balance model on sorbent in CFB combustors: the influence of particle attrition. Industrial and Engineering Chemistry Research 2011, 50:9704-9711.
157. Montagnaro F., Salatino P., Scala F., Urciuolo M. A population balance model of sorbent conversion and attrition in a fluidized bed calcium looping process 2012, 389-396.
158. 2 in a fluidized bed. The Canadian Journal of Chemical Engineering 2008, 86:356-366.
159. Patel K., Nienow A.W., Milne I.P. Attrition of urea in a gas-fluidised bed. Powder Technology 1986, 47:257-261.
160. Pecanha R.P., Gibbs B.M. The importance of coal fragmentation and swelling on coal burning rates in a fluidised bed combustor 1984.
161. Pis J.J., Fuertes A.B., Artos V., Suarez A., Rubiera F. Attrition of coal ash particles in a fluidized bed. Powder Technology 1991, 66:41-46.
162. Pisupati S.V., Wasco R.S., Morrison J.L., Scaroni A.W. Sorben behaviour in circulating fluidized bed combustors - relevance of thermally induced fractures to particle size dependence. Fuel 1996, 75:759-768.
163. Ponomareva T.P., Kontorovich S.I., Shchukin E.D. Attrition of spherical cracking catalysts in the presence of powdered lubricants. Kinetics and Catalysis 1980, 21:397-401.
164. Prins W., Siemons R., Van Swaaij W.P.M., Radovanovic M. Devolatilization and ignition of coal particles in a two-dimensional fluidized bed. Combustion and Flame 1989, 75:57-79.
165. 2 capture. Energy and Fuels 2012, 26:154-161.
166. Ragland K.W., Pecson F.A. Coal fragmentation in a fluidized bed combustor. Proceedings of the Combustion Institute 1988, 22:259-265.
167. Rangel N., Pinho C. Fragmentation effect on batches of pine wood char burning in a fluidized bed. Energy and Fuels 2010, 24:318-323.
168. Ray Y.-C., Jiang T.-S., Wen C.Y. Particle attrition phenomena in a fluidized bed. Powder Technology 1987, 49:193-206.
169. Redemann K., Hartge E.-U., Werther J. Ash management in circulating fluidized bed combustors. Fuel 2008, 87:3669-3680.
170. Reppenhagen J., Werther J. Catalyst attrition in cyclones. Powder Technology 2000, 113:55-69.
171. Reyes S., Jensen K.F. Percolation concepts in modelling of gas-solid reactions - I. Application to char gasification in the kinetic regime. Chemical Engineering Science 1986, 41:333-343.
172. Reyes S., Jensen K.F. Percolation concepts in modelling of gas-solid reactions - II. Application to char gasification in the diffusion regime. Chemical Engineering Science 1986, 41:345-354.
173. Rohatgi N.D.T., Ulerich N.H., Newby R.A., Keairns D.L. Agglomeration of sorbent and ash carry-over for use in atmospheric fluidized-bed combustors. Industrial and Engineering Chemistry Process Design and Development 1983, 22:257-263.
174. Rozelle P.L., Pisupati S.V., Morrison J.L., Scaroni A.W. The partitioning of calcium and sulfur between bottom ash and flyash in a commercial CFB boiler 1999.
175. Rozelle P.L., Pisupati S.V., Scaroni A.W. Influence of petrographic composition of sorbents on attrition characteristics in a CFB boiler 2003, 621-627.
176. Rozelle P.L., Pisupati S.V., Scaroni A.W. Effect of fuel properties on the bottom ash generation rate by a laboratory fluidized bed combustor. Journal of Energy Resources Technology 2007, 129:144-151.
177. Ruth L.A. Varga G.M. Jr., New regenerable sorbents for fluidized bed coal combustion. Environmental Science and Technology 1979, 13:715-720.
178. 2 capture by limestone in a circulating fluidized bed. Industrial and Engineering Chemistry Research 2007, 46:7308-7316.
179. 2 capture in a large-scale pressurised fluidised bed combustor. Chemical Engineering Science 2007, 62:574-583.
180. Saastamoinen J.J., Shimizu T. Attrition-enhanced sulfur capture by limestone particles in fluidized beds. Industrial and Engineering Chemistry Research 2007, 46:1079-1090.
181. Saastamoinen J., Pikkarainen T., Tourunen A., Räsänen M., Jäntti T. Model of fragmentation of limestone particles during thermal shock and calcination in fluidized beds. Powder Technology 2008, 187:244-251.
182. 2 partial pressure conditions. Chemical Engineering Science 2010, 65:550-555.
183. Sahimi M., Tsotsis T.T. Dynamic scaling for the fragmentation of reactive porous media. Physical Review Letters 1987, 59:888-891.
184. Salatino P., Chirone R. Carbon attrition during the fluidized bed combustion of coal 1999.
185. Salatino P., Massimilla L. A descriptive model of carbon attrition in the fluidized combustion of a coal char. Chemical Engineering Science 1985, 40:1905-1916.
186. Salatino P., Massimilla L. The role of peripheral percolation in detachment of fines from burning carbon particles. Proceedings of the Combustion Institute 1988, 22:29-37.
187. Salatino P., Massimilla L. A predictive model of carbon attrition in fluidized bed combustion and gasification of a graphite. Chemical Engineering Science 1989, 44:1091-1099.
188. Salatino P., Massimilla L. Modeling fragmentation by percolation in combustion of carbons. Powder Technology 1991, 66:47-52.
189. Salatino P., Miccio F., Massimilla L. Combustion and percolative fragmentation of carbons. Combustion and Flame 1993, 95:342-350.
190. Salatino P., Scala F., Chirone R. Fluidized bed combustion of a biomass char: the influence of carbon attrition and fines postcombustion on fixed carbon conversion. Proceedings of the Combustion Institute 1998, 27:3103-3110.
191. 2 ratio. Energy and Fuels 2011, 25:1051-1059.
192. Scala F., Chirone R. Fluidized bed combustion of alternative solid fuels. Experimental Thermal and Fluid Science 2004, 28:691-699.
193. Scala F., Salatino P. Modelling fluidized bed combustion of high volatile solid fuels. Chemical Engineering Science 2002, 57:1175-1196.
194. Scala F., Salatino P. Dolomite attrition during fluidized-bed calcination and sulfation. Combustion Science and Technology 2003, 175:2201-2216.
195. Scala F., Salatino P. Limestone attrition under simulated oxyfiring fluidized-bed combustion conditions. Chemical Engineering and Technology 2009, 32:380-385.
196. Scala F., Salatino P. Attrition of limestones by impact loading in fluidized beds: the influence of reaction conditions. Fuel Processing Technology 2010, 91:1022-1027.
197. Scala F., Salatino P. Flue gas desulfurization under simulated oxyfiring fluidized bed combustion conditions: the influence of limestone attrition and fragmentation. Chemical Engineering Science 2010, 65:556-561.
198. Scala F., Salatino P. Limestone fragmentation and attrition during fluidized bed oxyfiring. Fuel 2010, 89:827-832.
199. Scala F., Cammarota A., Chirone R., Salatino P. Comminution of limestone during batch fluidized bed calcination and sulphation. AIChE Journal 1997, 43:363-373.
200. Scala F., Salatino P., Boerefijn R., Ghadiri M. Attrition of sorbents during the fluidized bed calcination and sulphation. Powder Technology 2000, 107:153-167.
201. Scala F., Salatino P., Chirone R. Fluidized bed combustion of a biomass char (Robinia pseudoacacia). Energy and Fuels 2000, 14:781-790.
202. Scala F., Montagnaro F., Salatino P. Enhancement of sulfur uptake by hydration of spent limestone for fluidized-bed combustion application. Industrial and Engineering Chemistry Research 2001, 40:2495-2501.
203. Scala F., Chirone R., Salatino P. The influence of fine char particles burnout on bed agglomeration during the fluidized bed combustion of a biomass fuel. Fuel Processing Technology 2003, 84:229-241.
204. Scala F., Chirone R., Salatino P. Fluidized bed combustion of tyre derived fuel. Experimental Thermal and Fluid Science 2003, 27:465-471.
205. Scala F., Chirone R., Salatino P. Combustion and attrition of biomass chars in a fluidized bed. Energy and Fuels 2006, 20:91-102.
206. Scala F., Montagnaro F., Salatino P. Attrition of limestone by impact loading in fluidized beds. Energy and Fuels 2007, 21:2566-2572.
207. Scala F., Montagnaro F., Salatino P. Sulphation of limestones in a fluidized bed combustor: the relationship between particle attrition and microstructure. The Canadian Journal of Chemical Engineering 2008, 86:347-355.
208. Scala F., Chirone R., Meloni P., Carcangiu G., Manca M., Mulas G., Mulas A. Fluidized bed desulfurization using lime obtained after slow calcination of limestone particles 2011.
209. Scala F., Chirone R., Manca M., Mulas G., Mulas A. Fluidized bed desulfurization using an activated carbonate sorbent 2012, 549-556.
210. Seville J.P.K., Mullier M.A., Hailu L., Adams M.J. Attrition of agglomerates in fluidized beds. Fluidization VII 1992, 587-594. Engineering Foundation, New York. O.E. Potter, D.J. Nicklin (Eds.).
211. Shih H.H., Chu C.Y., Hwang S.J. Solids circulation and attrition rates and gas bypass in an internally circulating fluidized bed. Industrial and Engineering Chemistry Research 2003, 42:5915-5923.
212. 2 capture in a large-scale PFBC. Chemical Engineering Science 2001, 56:6719-6728.
213. 2 capture by limestone in 71MWe pressurized fluidized bed combustor. Chemical Engineering Science 2002, 57:4117-4128.
214. 2 capture by uncalcined limestone under pressurized fluidized bed combustion conditions. Chemical Engineering Science 2003, 58:3053-3057.
215. Solimene R., Urciuolo M., Cammarota A., Chirone R., Salatino P., Damonte G., Donati C., Puglisi G. Devolatilization and ash comminution of two different sewage sludges under fluidized bed combustion conditions. Experimental Thermal and Fluid Science 2010, 34:387-395.
216. Somma G., Coppola A., Scala F., Salatino P. Attrition of bed materials in a lab-scale circulating fluidized bed 2011.
217. Soundarrajan N., Rozelle P.L., Pisupati S.V. Development and use of a method for prediction of the ash split in a CFBC boiler to improve the energy efficiency. Fuel 2012, 102:9-15.
218. Sreekanth M., Kumar R.R., Kumar Kolar A., Leckner B. Estimation of wood char size at the end of devolatilization in a bubbling fluidized bed combustor. Fuel 2008, 87:3393-3420.
219. Sreekanth M., Kumar Kolar A., Leckner B. A semi-analytical model to predict primary fragmentation of wood in a bubbling fluidized bed combustor. Journal of Analytical and Applied Pyrolysis 2008, 83:88-100.
220. Sreekanth M., Prasad B.V.S.S.S., Kumar Kolar A., Thunman H., Leckner B. Stresses in cylindrical wood particle undergoing devolatilization in a hot bubbling fluidized bed. Energy and Fuels 2008, 22:1549-1559.
221. Srinivasachar S., Toqan M.A., Beer J.M., Ettouney H.M. Percolation model for coal char particles combustion and fragmentation. Combustion Science and Technology 1988, 57:55-70.
222. Stanmore B.R., Brillard A., Gilot P., Delfosse L. Fragmentation of small coal particles under fluidized-bed combustor conditions. Proceedings of the Combustion Institute 1996, 26:3269-3275.
223. Stantan J.E. Sulphur retention in fluidized bed combustion. Fluidized Beds: Combustion and Applications 1983, 199-225. Applied Science, Barking, Chap. 5. J.R. Howard (Ed.).
224. Stein M., Seville J.P.K., Parker D.J. Attrition of porous particles in a fluidised bed. Powder Technology 1998, 100:242-250.
225. Stubington J.F., Moss B. On the timing of primary fragmentation during bituminous coal particle devolatilisation in a fluidized bed combustor. The Canadian Journal of Chemical Engineering 1995, 73:505-509.
226. Sudhakar D.R., Reddy K.S., Kumar Kolar A., Leckner B. Fragmentation of wood char in a laboratory scale fluidized bed combustor. Fuel Processing Technology 2008, 89:1121-1134.
227. Sundback C.A., Beer J.M., Sarofim A.F. Fragmentation behavior of single coal particles in a fluidized bed. Proceedings of the Combustion Institute 1984, 20:1495-1503.
228. Tardin P.R., Goldstein L., Lombardi G., Pagliuso J.D. On the mechanical attrition and fragmentation of particles in a fast fluidized bed. Industrial and Engineering Chemistry Research 2001, 40:4141-4150.
229. Tiriri E., Bouhafid A., Vantelon J.P. Attrition of Tarfaya oil shale influence of thermal degradation. Fluidization VIII 1995, 59-65. Engineering Foundation, New York. J.-F. Large, C. Laguerie (Eds.).
230. Tomeczek J., Mocek P. Attrition of coal ash particles in a fluidized-bed reactor. AIChE Journal 2007, 53:1159-1163.
231. Troiano M., Ammendola P., Scala F. Attrition of lignite char under fluidized bed gasification conditions: the effect of carbon conversion. Proceedings of the Combustion Institute 2013, 34:814-820.
232. Urciuolo M., Solimene R., Chirone R., Salatino P. Fluidized bed combustion and fragmentation of wet sewage sludge. Experimental Thermal and Fluid Science 2012, 43:97-104.
233. Vanderwalle C., Degreve J., Baeyens J. Attrition and erosion in powder circulation loops. Powder Handling and Processing 2001, 13:77-81.
234. Vaux W.G. Attrition of particles in the bubbling zone of a fluidized bed. Proceedings of the American Power Conference 1978, 40:793-802.
235. Vaux W.G., Fellers A.W. Measurement of attrition tendency in fluidization. AIChE Symposium Series 205 1981, 77:107-115.
236. Vaux W.G., Keairns D.L. Particle attrition in fluid-bed processes. Fluidization 1980, 437-444. Plenum Press, New York. J.R. Grace, J.M. Matsen (Eds.).
237. Vaux W.G., Shruben J.S. Kinetics of attrition in the bubbling zone of a fluidized bed. AIChE Symposium Series 222 1983, 79:97-102.
238. Vleeskens J.M., Roos M. Attrition of chars in fluidized bed combustion. Fuel 1989, 68:825-828.
239. Walsh P.M. The efficiency of bituminous coal combustion in bubbling atmospheric pressure fluidized beds 1989, 765-773.
240. Walsh P.M., Dutta A., Cox R.J., Sarofim A.F., Beer J.M. The production and loss of char fines during fluidized bed combustion of a high volatile bituminous coal. Proceedings of the Combustion Institute 1988, 22:249-258.
241. Wang A.L.T., Stubington J.F. Generation of fine chars from Australian black coals in pressurized fluidized bed combustion. Combustion and Flame 2002, 129:192-203.
242. Wang T., Yang H., Wu Y., Liu Q., Lu J., Zhang H. Experimental study on the effects of chemical and mineral components on the attrition characteristics of coal ashes for fluidized bed boilers. Energy and Fuels 2012, 26:990-994.
243. Werther J., Reppenhagen J. Catalyst attrition in fluidized-bed systems. AIChE Journal 1999, 45:2001-2010.
244. Werther J., Reppenhagen J. Attrition. Handbook of Fluidization and Fluid-Particle Systems 2003, 201-237. Marcel Dekker, New York, Chap. 8. W.C. Yang (Ed.).
245. Werther J., Xi W. Jet attrition of catalyst particles in gas fluidized beds. Powder Technology 1993, 76:39-46.
246. Winter F., Liu X. Attrition behavior of coal ash under circulating fluidized bed combustion conditions 2003, 517-521.
247. 2O formation. Fluidization X 2001, 661-668. United Engineering Foundation, New York. M. Kwauk, J. Li, W. Yang (Eds.).
248. 2-adsorbent microspheres composed of CaO nanoparticles. Industrial and Engineering Chemistry Research 2010, 49:12269-12275.
249. Wu S.-Y., Baeyens J., Chu C.-Y. Effect of the grid velocity on attrition in gas fluidized beds. The Canadian Journal of Chemical Engineering 1999, 77:738-744.
250. Xiao G., Grace J.R., Lim C.J. Attrition characteristics and mechanisms for limestone particles in an air-jet apparatus. Powder Technology 2011, 207:183-191.
251. Xiao G., Grace J.R., Lim C.J. Limestone particle attrition in high-velocity air jets. Industrial and Engineering Chemistry Research 2012, 51:556-560.
252. Yang H., Wirsum M., Lu J., Xiao X., Yue G. Semi-empirical technique for predicting ash size distribution in CFB boilers. Fuel Processing Technology 2004, 85:1403-1414.
253. Yang H., Yue G., Xiao X., Lu J., Liu Q. 1D modeling on the material balance in CFB boiler. Chemical Engineering Science 2005, 60:5603-5611.
254. Yao X., Zhang H., Yang H., Liu Q., Wang J., Yue G. An experimental study on the primary fragmentation and attrition of limestones in a fluidized bed. Fuel Processing Technology 2010, 91:1119-1124.
255. Yates J.G., Cobbinah S.S., Cheesman D.J., Jordan S.P. Particle attrition in fluidized beds containing opposing jets. AIChE Symposium Series 1991, 281(87):13-19.
256. Zenz F.A. Help from project E-A-R-L. Hydrocarbon Processing 1974, 53:119-124.
257. Zenz F.A., Kelleher G.H. Studies of attrition rates in fluid-particle systems via free fall, grid jets, and cyclone impact. Journal of Powder and Bulk Solids Technology 1980, 4:13-20.
258. Zhang H., Cen K., Yan J., Ni M. The fragmentation of coal particles during the coal combustion in a fluidized bed. Fuel 2002, 81:1835-1840.
259. 3 sorbent. Energy and Fuels 2012, 26:1395-1400.
260. Zhou L., Jiang X., Liu J. A population model of quartzite particles in a lab-scale fluidized bed due to the thermal fragmentation. Powder Technology 2009, 188:277-282.