A Comparative Research on Different Preparation Methods of Furfural Hydrogenation Non-Chromium Catalysts

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Furfuryl alcohol is an important organic chemical material. The traditional catalysts of furfural hydrogenation to produce furfuryl alcohol contain Cr, which is harmful to people’s health and causes severe environmental pollution. Developing new highly active catalysts in furfuryl alcohol is of great practical significance. The progress of non-chrome catalysts for hydrogenation of furfural to produce furfuryl alcohol has been reviewed. Some environmental-friendly non-chrome catalysts, such as copper catalysts, CuO-CaO/SiO2 catalysts, Cu-Zn-Al catalysts, load Ni and ultra-fine Ni-B amorphous alloy catalysts, had been discussed and their preparations and structure characterizations were described. Some constructive strategies are presented for the research and applications of such catalysts.

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27-31

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November 2012

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© 2012 Trans Tech Publications Ltd. All Rights Reserved

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[1] Zengxin Li, Qijun Zhang, Haizeng Wang. Chemistry World, 1998, 39 (5) :268-271

Google Scholar

[2] H.Adkins,R.Conner. Journal of the American Chemical Society,1931,(5) :109

Google Scholar

[3] Haizeng Wang, Zengxin Li. Renewable resources,2002, 6:29-31

Google Scholar

[4] Zengxin Li, Xiangren Li. Environmental Pollution and Control, 2003, 1 (6):21-24

Google Scholar

[5] Jing Wu, Yan-ming Shen, Chang-hou Liu, Modern Chemical Industry, 2002,(S1):23-25

Google Scholar

[6] Lingyan Kong, Jing Wu, Yanming Shen. Journal of Shenyang Institute of Chemical Technolgy,, 2002,16 (2) :95-98

Google Scholar

[7] Jing Wu, Yanming Shen, Kunyuan Wang. Journal of Molecular Catalysis, 2003,17 (5) :321-325

Google Scholar

[8] Jun Yang, Hongyan Zheng, Yu Tang. Modern Chemical Industry, 2004,24 (9): 19

Google Scholar

[9] Dingguo Zhang , Shoumin Zhang, Shuhong Zhang. Chinese Journal of atalysis,2003, 34(5):350-354

Google Scholar

[10] Qiying Liu,Yong Li,Weijie Cai. Molecular Catalysis, 2007, 21 (4): 23-28

Google Scholar

[11] Guoyi Bai, Hailong Wang, Huisen Ning. Journal of Hebei University (Natural Science Edition), 2009,29 (4) :381-385.

Google Scholar

[12] Weiwei Lu, XianLun Xu. Journal of Molecular Catalysis, 2006, 20 (1) :67-69

Google Scholar

[13] Yaling Sun, Changhai Du, Dan Zou. Journal of Chemical engineer, 2010, (1):10 -15

Google Scholar

[14] B.C.H. Venneker, J.J. Derksen, H.E.A. van den Akker. J AIChE, 2002, 48:673

Google Scholar

[15] S. Lo. AEA Technology, 2001, 56:1096

Google Scholar

[16] Xiubo Zhao, Xin Jiang, Jun Industrial Catalysis, 2005,13 (10) :47-50

Google Scholar

[17] H.Y.sohn,M.E. Wadsworth. Rate Process of Extractive Metallurgy. Plenum,New York,(1979)

Google Scholar

[18] Essein, M.K. Tians Inst Mining Met Sect C,1971,80(772):7-11

Google Scholar