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Progress in Chemistry 2002, Vol. 14 Issue (03): 225- Previous Articles   Next Articles

• Review •

Progress on CO2 Conversion by Plasma-Catalysis

Dai Bin1,2**;Gong Weimin1;Zhang Xiuling1;He Ren1   

  1. 1. Plasma Chemistry Laboratory, Dalian University of Technology, Dalian 116012, China; 2.Department of Chemistry, Shihezi University, Xinjiang Shihezi 832002, China
  • Received: Revised: Online: Published:
  • Contact: Dai Bin
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Progress in research of CO_2 activated by plasma and plasma-catalysis is summarized. The mechanism of CO_2 activation is also discussed. The problem at present is analyzed and research direction for the future is introduced.

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[ 1 ] 肖亚平(Xiao Y P) , 贝浼智(Bei M Z). 现代化工(Modern Chemical Industry) , 1995, 9: 34—36
[ 2 ] 王建伟(Wang J W ) , 钟顺和(Zhong S H ). 化学进展(Progress in Chemistry) , 1998, 10 (4) : 374—380
[ 3 ] 魏双绍(Wei S S). 天然气化工(Natural Gas Chemical Industry) , 1998, 23 (6) : 40—46
[ 4 ] 孟宪波(Meng X B) , 黄友梅(Huang Y M ) , 张天莉(Zhang T L ). 合成化学(Chinese Journal of Synthetic Chemistry) ,1996, 4 (3) : 209—214
[ 5 ] Liu C J , Xu G H, Wang T M. Fuel Processing Technology, 1999, 58 (2) : 119—134
[ 6 ] Finlayson D, Geoffrey J. U S Patent, 1935, No. 1, 986,885
[ 7 ] Maezono I, Chang J S. IEEE Trans. Ind. Appl. , 1990,26 (4) : 651—655
[ 8 ] Xie Z, Jogan K, Chang J S. in Conf. Rec. IEEE IA S M tg. , 1991, 809—814
[ 9 ] Jogan K, Mizuno A , Yamamoto T, et al. IEEE Trans.Ind. Appl. , 1993, 29 (5) : 876—881
[ 10 ] Czernichowski A. Pure & Appl. Chem. , 1994, 66 ( 6) :1301—1310
[ 11 ] Zaman J , Chakma A. Fuel Processing Tech. , 1995, 41:159—198
[ 12 ] Ihara T, Kibobu M , Iriyama Y. Bull. Chem. Soc. Jpn. ,1994, 67 (1) : 312—314
[ 13 ] Ihara T, Ouro T, Ochiai T, et al. Bull. Chem. Soc. Jpn.1996, 69 (1) : 241—244
[ 14 ] Seizo K, Yoshihiro Y, Motohiro O. Am. Soc. Mech.Eng. EC, 1997, 5 (2—5) : 497—502
[ 15 ] Liu C J. Chemistry Letters, 1996, 749—750
[ 16 ] Hsieh L T, Lee W J , Li C T, et al. J. Chem. Tech. & Biotech. , 1998, 73 (4) : 432—442
[ 17 ] Mutaf-Yardimci O , Savelive A V , Fridman A A , et al. International Journal of Hydrogen Energy, 1998, 23 ( 12) :1109—1111
[ 18 ] 陈栋梁(Chen D L ) , 李庆(Li Q ) , 于作龙(Yu Z L ) 等. 天然气化工(Natural Gas Chemical Industry) , 1999, 24 (4) :1—4
[ 19 ] 陈栋梁(Chen D L ) , 雷正兰(Lei Z L ) , 刘万盈(Liu W Y)等. 合成化学(Chinese Journal of Synthetic Chemistry) ,1997, 5 (2) : 131—132
[ 20 ] Brock S L , Shimojo T, Marquez M , et al. J. Catal. ,1999, 184: 123—133
[ 21 ] Wang J Y, Xia G G, Huang A M , et al. J. Catal. , 1999,185: 152—159
[ 22 ] Huang A M , Xia G G, Wang J Y, et al. J. Catal. , 2000,189: 349—359
[ 23 ] Yao S L , Ouyang F, Nakayama A , et al. Energy and Fuels, 2000, 14 (4) : 910—914
[ 24 ] Maya L. J. Vacuum Sci. & Tech. A , 2000, 18 (1) : 285—287
[ 25 ] Tsuji M , Tanoue T, Nakano K, et al. Chem. Lett. ,2001, 349 (1) : 22—23
[ 26 ] 李明伟(Li M W ) , 许根慧(Xu G H) , 刘昌俊(Liu C J ) 等.燃料化学学报( Journal of Fuel Chemistry and Technology) , 2001, 29 (3) : 243—246
[ 27 ] Kado S, Urasaki K, Sekine Y, et al. Chem. Comm. ,2001, 415—416
[ 28 ] 代斌(Dai B) , 宫为民(Gong W M ) , 张秀玲(Zhang X L )等. 中国环境科学(China Environmental Science) , 1999,19 (4) : 410—413
[ 29 ] 代斌(Dai B) , 宫为民(Gong W M ) , 张秀玲(Zhang X L )等. 天然气化工(Natural Gas Chemical Industry) , 2000,25 (6) : 11—14
[ 30 ] Dai B, Zhang X L , Gong W M , et al. Plasma Science & Technology, 2000, 2 (6) : 577—580
[ 31 ] Zhang X L , Zhang L , Dai B, et al. Plasma Science & Technology, 2001, 3 (2) : 737—741
[ 32 ] Blaustein B D, Fu Y C. Adv. Chem. Ser. , 1969, 80:259—271
[ 33 ] Mertz S F, Asmussen J , Hawley M C. IEEE T rans. P lasma Sci. , 1974, V. PS22: 297—306
[ 34 ] Eremin E N , Malsev A N , Belova V M , et al. Russian J.Phys. Chem. , 1978, 52 (11) : 1654—1656
[ 35 ] Eremin E N , Malsev A N , Belova V M , et al. ibid, 1979,53 (8) : 1159—1161
[ 36 ] Eremin E N , Malsev A N , Belova V M , et al. ibid, 1979,53 (10) : 1448—1450
[ 37 ] L iu C J , M allinson R, Lobban L. App l. Catal. A , 1999,178 (1) : 17—27
[ 38 ] Eliasson B, Liu C J , Kogelschatz U. Ind. Eng. Chem.Res. , 2000, 39 (5) : 1221—1227
[ 39 ] 姜涛(Jiang T) , 张悝(Zhang L ) , 刘昌俊(Liu C J ) 等. 燃料化学学报(Journal of Fuel Chemistry and Technology) ,2001, 29 (1) : 6—11
[ 40 ] Li Y, Xu G H, Liu C J , et al. Energy & Fuels, 2001, 15:299—302
[ 41 ] 代斌(Dai B) , 宫为民(Gong W M ) , 张秀玲(Zhang X L )等. 高等学校化学学报(Chemical Journal of Chinese Universities) , 2001, 22 (5) : 817—820
[ 42 ] Dai B, Zhang X L , Gong W M , et al. Chinese Journal of Natural Gas Chemistry, 2001, 10 (4) : 325—330
[ 43 ] 宫为民(Gong W M ) , 张秀玲(Zhang X L ) , 代斌(Dai B)等. 第十届全国催化学术会议论文集, 张家界, 2000, 10:623—624
[ 44 ] 代斌(Dai B). 硕士学位论文(Master Dissertation) , 大连理工大学(Dalian University of Technology) , 2000

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