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Progress in Chemistry 2007, Vol. 19 Issue (9): 1322-1330 Previous Articles   Next Articles

• Review •

Preparation of Macro-mesostructured Pseudoboehmite and γ-Al2O3with High Surface Area

Cai Weiquan1** Yu Xiaofeng2   

  1. 1.School of Chemical Engineering, Wuhan University of Technology, Wuhan 430070, China;

    2.Feng Yuan Eiectrochemical Manufacture Co. Ltd, HanJiang Group, Yun Xian 442500, China

  • Received: Revised: Online: Published:
  • Contact: Cai Weiquan
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As a very important catalyst support, adsorbent and separate material, the preparation of macro-mesostructured γ-Al2O3 is very important, especially for catalytic conversion of petroleum heavy cuts and residues. However, while increasing the pore volumes, the surface areas decrease for most conventional preparation methods of macro-mesostructured γ-Al2O3. The methods and their mechanisms to prepare macro-mesostructured pseudoboehmite and γ-Al2O3 with high surface areas are reviewed in this paper, including controlling the precipitation process of pseudoboehmite, the precipitation processing techniques of the precipitated pseudoboehmite and the introducing pore forming additives or sintering additives. These preparation ways include pH swing method, organic reagent as reaction media, surfactant assembly, microwave-assisted heating, hydrothermal processing of pseudoboehmite or γ-Al2O3 directly, displacement water in wet precipitate by organic solvent, unconventional drying method and control of pore structure with pore forming additives or sintering additives. Finally, development trend for preparation techniques of macro-mesostructured pseudoboehmite and γ-Al2O3 is also suggested.

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[ 1 ] Guzman J J , Contreras C A , Sugita S , et al . Activated Alumina from Pseudoboehmite Derivated of an Aluminum Basic Sulphate.Las Vegas : TMS , 1995. 143 —148
[ 2 ] Guzmán-Castillo M L , Bokhini X, Toledo-Antonio A , et al . J .Phys. Chem. B , 2001 , 105 (11) : 2099 —2106
[ 3 ] Kiss A B , Keresztury G, Farkas L. Spectrochim. Acta A , 1980 ,36 (7) : 653 —658
[ 4 ] 高志贤(Gao Z X) , 程昌瑞(Cheng C R) . 石油炼制与化工(Petrol . Process &Petrochem. ) , 1999 , 30 (2) : 16 —19
[ 5 ] Mange F , Fauchadour D , Barré L , et al . Colloid Surface A ,1999 , 155 (2/3) : 199 —210
[ 6 ] Zhang Z R , Hicks R W, Pauly T R , et al . J . Am. Chem. Soc. ,2002 , 124 : 1592 —1593
[ 7 ] Schimanski J . Key Engineering Mater. , 1998 , 150 : 161 —170
[ 8 ] 朱洪法(Zhu H F) . 催化剂载体制备及应用技术(Preparation and Application Techniques of Catalyst Carriers) . 北京: 石油工业出版社(Beijing : Petroleum Industry Press) , 2002. 320 —321
[ 9 ] Tanaka K, Imai T , Murakami T , et al . Chem. Lett . , 2002 , 31 :110 —111
[10] Furimsky E. Appl . Catal . A2Gen. , 1998 , 171 (2) : 177 —206
[11] Dong P. Prog. Nat . Sci . , 2000 , 10 : 575 —584
[12] Bokhimi X, Sánchez-Valente J , Pedraza F. J . Solid State Chem. , 2002 , 166 (1) : 182 —190
[13] Stanislaus A , Al-Dolama K, Absi-Halabi M. J . Mol . Catal . A:Chem. , 2002 , 181 (1/2) : 33 —39
[14] Blin J L , Lonard A , Yuan Z Y, et al . Angew. Chem. Int . Ed. ,2003 , 42 (25) : 2872 —2875
[15] Díaz E , Ordóìez S , Vega A , et al . J . Chromatogr. A , 2004 ,1049 (1/2) : 139 —146
[16] Ono T , Ohguchi Y, Togari O. Stud. Surf . Sci . Catal . , 1983 ,16 : 631 —641
[17] 杜明仙(Du M X) , 翟效珍(Di X Z) , 李源(Li Y) 等. 催化学报(Chin. J . Catal . ) , 2002 , 23 (5) : 465 —468
[18] 杜明仙(Du M X) , 翟效珍(Di X Z) , 李源(Li Y) 等. 催化学报(Chin. J . Catal . ) , 2002 , 23 (5) : 469 —472
[19] 张继光( Zhang J G) . 催化剂制备过程技术( Preparation Processing Techniques of Catalysts) . 北京: 中国石化出版社(Beijing : China Petrochemical Press) , 2004. 99 —111
[20] Stalidis G A , Bakoyannakis D N , Zamboulis D X. J . Chem.Tech. Biotechnol . , 1992 , 54 : 123 —127
[21] Inoue M, Kominami H , Inui T. J . Mater. Sci . , 1994 , 29 (9) :2459 —2466
[22] 曹洁明(Cao J M) , 侯海涛(Hou H T) , 马贤佳(Ma X G) 等.无机化学学报(Chin. J . Inorganic Chem. ) , 2005 , 21 (9) :1379 —1382
[23] Blin J L , Léonard A , Yuan Z Y, et al . Angew. Chem. Int .Ed. , 2003 , 42 : 2872 —2875
[24] Zhang X, Zhang F , Chan K Y. Mater. Lett . , 2004 , 58 (22/23) : 2872 —2877
[25] Zhang Z R , Pinnavaia T J . J . Am. Chem. Soc. , 2002 , 124(41) : 12294 —12301
[26] Zhang Z R , Hicks R W, Pauly T R , et al . J . Am. Chem. Soc. ,2002 , 124 (8) : 1592 —1593
[27] Zhu H Y, Riches J D , Barry J C. Chem. Mater. , 2002 , 14 (5) :2086 —2093
[28] Zhu H Y, Gao X P , Song D Y, et al . J . Phys. Chem. B , 2004 ,108 (14) : 4245 —4247
[29] Hicks R W, Pinnavaia T J . Chem. Mater. , 2003 , 15 (1) : 78 —82
[30] David E C , Diane C F , Jon KW. Mat . Sci . Eng. A: Struct . ,2000 , 287 (2) : 153 —158
[31] Kiminami R , Morelli M, Folz D , et al . Am. Ceram. Soc. Bull . ,2000 , 79 (3) : 63 —67
[32] Ren T Z , Yuan Z Y, Su B L. Langmuir , 2004 , 20 (4) : 1531 —1534
[33] Okada K, Nagashima T , Kameshima Y, et al . J . Coll . Int .Sci . , 2002 , 253 (2) : 308 —314
[34] 蔡卫权(Cai W Q) . 催化学报(Chin. J . Catal . ) , 2006 , 27(9) : 805 —809
[35] Zhang J L , Chen J G, Ren J , et al . Appl . Catal . A: Gen. ,2003 , 243 (1) : 121 —133
[36] White A , Walpole A , Huang Y, et al . Appl . Catal . , 1989 , 56(1) : 187 —196
[37] Cai W Q , Li H Q , Zhang Y. Mater. Chem. Phys. , 2006 , 96(1) : 136 —139
[38] 蔡卫权(Cai W Q) . 中国科学院过程工程研究所博士论文(Doctorial Dissertation of the Institute of Process Engineering ,Chinese Academy of Sciences) , 2005
[39] 蔡卫权(Cai WQ) , 李会泉(Li H Q) , 张懿(Zhang Y) . 化工学报(J . Chem. Ind. Eng. (China) ) , 2004 , 55 (12) : 1976 —1980
[40] Kaliszewski M S , Heuer A H. J . Am. Ceram. Soc. , 1990 , 73(6) : 1504 —1509
[41] 冯丽娟(Feng L J) , 李克国(Li K G) , 陈诵英(Chen S Y) 等.天然气化工(C1 化学与化工) (Natural Gas Chem. Ind. C1 Chemistry &Chemical) , 1994 , 19 (6) : 42
[42] 陈海阳(Chen H Y) , 周西臣(Zhou X C) , 徐鸣(Xu M) 等. 石油大学学报( 自然科学版) ( J . Univ. Petroleum, China (Edition of Natural Science) ) , 2005 , 29 (1) : 117 —122
[43] Gan L H , Xu Z J , Feng Y, et al . J . Porous Mater. , 2005 , 12(4) : 317 —321
[44] Tallon C , Moreno R , Nieto M I. Mater. Res. Bull . , 2006 , 41(8) : 1520 —1529
[45] Fukasawa T , Deng Z Y, Ando M, et al . J . Ceram. Soc. Jpn. ,2001 , 109 (12) : 1035 —1038
[46] Kaliszewske M S , Heuer A H. J . Am. Ceram. Soc. , 1990 , 73(6) : 1504 —1509
[47] Parera J M, Fígoli N S. Catalytic Naphtaha Reforming. New York : Marcel Dekker , Inc. , 1995. 45
[48] Trimm D L , Stanislaus A. Appl . Catal . , 1986 , 21 (2) : 215 —238
[49] 盛景云(Sheng J Y) , 王跃敏(Wang Y M) , 方维平( Fang W P) . 厦门大学学报( 自然科学版) (J . Xiamen U. (Natural Science) ) , 2003 , 42 (5) : 626 —628
[50] 胡大为(Hu D W) , 杨清河(Yang Q H) , 聂红(Nie H) 等. 石油炼制与化工( Petrol Process & Petrochem. ) , 2004 , 35 (8) :46 —49
[51] Figueiredo C M C. Catal . Today , 1989 , 5 (4) : 433 —442
[52] 汪忠清(Wang Z Q) , 梁顺琴(Liang S Q) , 李斯琴(Li S Q) .石油化工(Petrochem. Technol . ) , 2001 , 30 (3) : 220 —223

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