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Progress in Chemistry 2009, Vol. 21 Issue (10): 2205-2211 Previous Articles   Next Articles

• Review •

The Application of in Situ FT-IR in the Research of Methane Oxidation

Yang Yang;  Zheng Wen;  Cheng Dangguo**;  Chen Fengqiu;  Zhan Xiaoli   

  1. （Department of Chemical and Biochemical Engineering, Zhejiang University, Hangzhou 310027, China）
  • Received: Revised: Online: Published:
  • Contact: Cheng Dangguo E-mail:dgcheng@zju.edu.cn
  • Supported by:

    National Natural Science Foundation of China

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The progress of in-situ FT-IR in the research of methane oxidation is reviewed. The use of in situ FT-IR technology in oxidative coupling of methane (OCM) and partial oxidation of methane (POM) in recent years are introduced. The different oxygen species on OCM catalysts and the effects of experimental conditions on POM reaction mechanism are discussed. The studies of identifying and assigning unambiguous IR band are important and necessary, which will make the FT-IR technology have more wide applications.

Contents
1 Introduction
2 Application of in situ FT-IR in the research of OCM reaction mechanism
3 Application of in situ FT-IR in the research of POM reaction mechanism
4 Conclusion

Key words: in situ FT-IR, oxidative coupling of methane (OCM), partial oxidation of methane (POM), catalytic mechanism

CLC Number: 

[ 1 ] 　Litlle L H. Infrared Spectra of Adsorbed Species. London: Academic Press , 1966
[ 2 ] 　Keller G E , Bhasin MM. J . Catal . , 1982 , 73 : 9 —19
[ 3 ] 　Lunsford J H. Angew. Chem. Int . Ed. Engl . , 1995 , 34 : 970 —980
[ 4 ] 　Voskresenskya E N , Rogulev V G, Anshits A G. Catal . Rev. Sci .Eng. , 1995 , 37 : 101 —143
[ 5 ] 　Amenomiya Y, Birss V I , Goledzinowski M, et al . Catal . Rev. Sci .Eng. , 1990 , 32 : 163 —227
[ 6 ] 　Maitra A M. Appl . Catal . A , 1993 , 104 : 11 —59
[ 7 ] 　Driscoll D J , Martir W, Wang J X, et al . J . Am. Chem. Soc. ,1985 , 107 : 58 —63
[ 8 ] 　Miro E , Santamaria J , Wolf E E. J . Catal . , 1900 , 124 : 451 —464
[ 9 ] 　Lin C H , Campbell KD , Wang J X, et al . J . Phys. Chem. , 1986 ,90 : 534 —537
[10 ] 　Ito T, Wang J X, Lin C H , et al . J . Am. Chem. Soc. , 1985 ,107 : 5062 —5068
[11 ] 　Miro E , Santamaria J , Wolf E E. J . Catal . , 1990 , 124 : 451 —464
[12 ] 　Lunsford J H , Yang XM, Haller K, et al . J . Phys. Chem. , 1993 ,97 (51) : 13810 —13813
[13 ] 　Osada Y, Koike S , Fukushima T, et al . Appl . Catal . , 1990 , 59(1) : 59 —74
[14 ] 　WangJ X, Lunsford J H. J . Phys. Chem. , 1986 , 90 ( 17 ) :3890 —3891
[15 ] 　Liu Y D , Zhang H B , Lin G D , et al . J . Chem. Soc. Chem.Commun. , 1994 , (16) : 1871 —1872
[16 ] 　Mashta F A , Sheppard N , Lorenzelli V , Busca G. J . Chem. Soc.Faraday. Trans. 1 , 1982 , 78 : 979 —989
[17 ] 　林景治(Lin J Z) , 杨得信(Yang D X) , 顾靖芳( Gu J F) 等.分子催化(Journal of Molecular Catalysis) , 1995 , 9 (6) : 193 —200
[18 ] 　翁维正(Weng W Z) , 龙瑞强(Long R Q) , 陈明树(Chen M S) ,万惠霖(Wan H L ) . 厦门大学学报( Journal of Xiamen University) , 2001 , 40 (2) : 349 —359
[19 ] 　魏光(Wei G) , 黄遵楠(Huang Z N) , 洪琦(Hong Q) 等. 化学物理学报(Chinese Journal of Chemical Physics) , 1998 , 11 (5) :471 —476
[20 ] 　龙瑞强(Long R Q) , 万惠霖(Wan H L) , 赖华龙(Lai H L) , 蔡启瑞(Tsai K R) . 高等学校化学学报(Chem. J . Chin. Univ. ) ,1995 , 16 (11) : 1796 —1797
[21 ] 　Wang L H , Yi X D , Weng W Z, et al . Catalysis Today , 2008 ,131 : 135 —139
[22 ] 　王丽华(Wang L H) , 伊晓东(Yi X D) , 翁维正(Weng W Z) ,万惠霖(Wan H L) . 催化学报(Chinese Journal of Catalysis) ,2007 , 28 (9) : 789 —793
[23 ] 　Brecher C , Halford R S. J . Chem. Phys. , 1961 , 35 : 1109 —1117
[24 ] 　Klingenberg B , Vannice M A. Chem. Mater. , 1996 , 8 ( 12 ) :2755 —2768
[25 ] 　季生福(Ji S F) , 李树本(Li S B) , 寇元(Kou Y) 等. 分析测试技术与仪器(Analysis and Testing Technology and Instruments) ,1997 , (4) : 204 —209
[26 ] 　季生福(Ji S F) , 李树本(Li S B) , 薛锦珍(Xue J Z) 等. 分子催化(Journal of Molecular Catalysis) , 2000 , 14 (2) : 107 —110
[27 ] 　余林(Yu L) , 徐奕德(Xu YD) , 郭燮贤(Guo X X) . 物理化学学报(Acta Phys. Chim. Sin. ) , 1995 , 11 (10) : 902 —906
[28 ] 　Prettre M, Eichner C , Perrin M. Trans. Faraday Soc. , 1946 , 42 :335 —340
[29 ] 　Vernon P D F , Green ML H , Cheetham A K, et al . Catal . Lett . ,1990 , 6 : 181 —186
[30 ] 　Dissanayake D , Rosynek M P , Kharas K C C , et al . J . Catal . ,1991 , 132 : 117 —127
[31 ] 　Hickman D A , Schmidt L D. J . Catal . , 1992 , 138 : 267 —282
[32 ] 　Hickman D A , Haupfear E A , Schmidt L D. Catal . Lett . , 1993 ,17 : 223 —237
[33 ] 　Mallens E P J , Hoebink J H B J , Marin G B. J . Catal . , 1997 ,167 : 43 —56
[34 ] 　Hofstad H K, Hoebink J H B J , Holmen A , et al . Catal . Today ,1998 , 40 : 157 —170
[35 ] 　Buyevskaya O V , Walter K, Wolf D , et al . Catal . Lett . , 1996 ,38 : 81 —88
[36 ] 　Cao C D , Bourane A , Schlup J R , Hohn K L. Appl . Catal . A:General , 2008 , 344 : 78 —87
[37 ] 　Chen Y Q , Hu C W, Gong M C , et al . Journal of Molecular Catalysis A: Chemical , 2000 , 152 : 237 —244
[38 ] 　Wu T H , Lin D M, Wu Y, et al . Journal of Natural Gas Chemistry ,2007 , 16 : 316 —321
[39 ] 　Li Z H , Xu G H , Hoflund GB. Fuel Processing Technology , 2003 ,84 : 1 —11
[40 ] 　万惠霖(Wan H L) , 翁维正(Weng W Z) . 复旦学报(Journal of Fudan University) , 2002 , 41 (3) : 243 —249
[41 ] 　翁维正(Weng W Z) , 罗春容(Luo C R) , 李建梅(Li J M) 等.化学学报(Acta Chimica Sinica) , 2004 , 62 (18) : 1853 —1857
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