Cu-Mn catalysts modified by rare earth lantnaum for low temperature water-gas shift reaction
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Na Li | Runxia He | Keduan Zhi | Quansheng Liu | Bin Wang | Haoqiang Jiang | Dandan Wang | Huacong Zhong
[1] B. M. Reddy,et al. Rare earth metal doped CeO2-based catalytic materials for diesel soot oxidation at lower temperatures , 2015 .
[2] M. Vithal,et al. Metathesis synthesis, characterization, spectral and photoactivity studies of Ln2/3MoO4 (Ln=La, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Er and Y) , 2015 .
[3] Runxia He,et al. Effect of doping rare earth oxide on performance of copper-manganese catalysts for water-gas shift reaction , 2014 .
[4] Runxia He,et al. Effect of anions on the structure and catalytic properties of a La-doped Cu-Mn catalyst in the water-gas shift reaction , 2014, Chemical Papers.
[5] K. Powers,et al. Effect of Y3+, Gd 3+ and La3+ dopant ions on structural, optical and electrical properties of o-mullite nanoparticles , 2014 .
[6] S. Liao,et al. Ultralow platinum-loading PtPdRu@PtRuIr/C catalyst with excellent CO tolerance and high performance for the methanol oxidation reaction , 2014, Rare Metals.
[7] Yuan Liu,et al. Effect of precipitants on Ni-CeO2 catalysts prepared by a co-precipitation method for the reverse water-gas shift reaction , 2013 .
[8] Yuan Liu,et al. Influence of preparation method on performance of Ni-CeO2 catalysts for reverse water-gas shift reaction , 2013 .
[9] J. Papavasiliou,et al. Highly active copper catalyst for low-temperature water-gas shift reaction prepared via a Cu-Mn spinel oxide precursor , 2013 .
[10] L. Čapek,et al. Control of metal ion species in zeolites by distribution of aluminium in the framework: From structural analysis to performance under real conditions of SCR-NOx and NO, N2O decomposition , 2011 .
[11] Runxia He,et al. Effect of precipitator on the texture and activity of copper-manganese mixed oxide catalysts for the water gas shift reaction , 2010 .
[12] C. Selomulya,et al. The influence of La-doping on the activity and stability of Cu/ZnO catalyst for the low-temperature water–gas shift reaction , 2010 .
[13] B. Taouk,et al. Removal of hazardous chlorinated VOCs over Mn-Cu mixed oxide based catalyst. , 2009, Journal of hazardous materials.
[14] Janez Levec,et al. Comparison of water–gas shift reaction activity and long-term stability of nanostructured CuO-CeO2 catalysts prepared by hard template and co-precipitation methods , 2009 .
[15] G. Avdeev,et al. Gold catalysts supported on ceria doped by rare earth metals for water gas shift reaction : Influence of the preparation method , 2009 .
[16] Shudong Wang,et al. Water gas shift reaction over Cu-Mn mixed oxides catalysts: Effects of the third metal , 2008 .
[17] Kangnian Fan,et al. Waste-free Soft Reactive Grinding Synthesis of High-Surface-Area Copper–Manganese Spinel Oxide Catalysts Highly Effective for Methanol Steam Reforming , 2008 .
[18] He Run-xi. Effect of adding rate of precipitator on the texture and activity of the copper-manganese mixed oxide catalyst for water gas shift reaction , 2008 .
[19] J. Papavasiliou,et al. Combined steam reforming of methanol over Cu–Mn spinel oxide catalysts , 2007 .
[20] G. Moradi,et al. Effect of the hybrid catalysts preparation method upon direct synthesis of dimethyl ether from synthesis gas , 2007 .
[21] L. Thompson,et al. On the importance of nanocrystalline gold for Au/CeO2 water–gas shift catalysts , 2006 .
[22] C. Gopinath,et al. Selective ortho-methylation of phenol with methanol over copper manganese mixed oxide spinel catalysts , 2006 .
[23] L. Cadús,et al. Total oxidation of ethanol and propane over Mn-Cu mixed oxide catalysts , 2006 .
[24] De Chen,et al. Remarks on the passivation of reduced Cu-, Ni-, Fe-, Co-based catalysts , 2006 .
[25] J. L. Gautier,et al. Characterization of Cu 1.4Mn 1.6O 4/PPy composite electrodes , 2006 .
[26] H. Yahiro,et al. Effect of calcination temperature on the catalytic activity of copper supported on γ-alumina for the water-gas-shift reaction , 2006 .
[27] Y. Qian,et al. Preparation, characterization and application of a new kind of mesoporous composite , 2006 .
[28] S. Bennici,et al. Dispersion and surface states of copper catalysts by temperature-programmed-reduction of oxidized surfaces (s-TPR) , 2005 .
[29] Yohei Tanaka,et al. Influence of preparation method and additive for Cu–Mn spinel oxide catalyst on water gas shift reaction of reformed fuels , 2005 .
[30] X. Duan,et al. Structure and surface chemistry of manganese-doped copper-based mixed metal oxides derived from layered double hydroxides , 2004 .
[31] T. Johannessen,et al. An improved N2O-method for measuring Cu-dispersion , 2004 .
[32] Xingyi Lin,et al. Influence of calcination temperature on the structure and catalytic performance of Au/iron oxide catalysts for water–gas shift reaction , 2004 .
[33] G. Hutchings,et al. Characterisation of copper-manganese oxide catalysts: Effect of precipitate ageing upon the structure and morphology of precursors and catalysts , 2003 .
[34] T. Tabakova,et al. FTIR study of low-temperature water-gas shift reaction on gold/ceria catalyst , 2003 .
[35] M. Flytzani-Stephanopoulos,et al. Active Nonmetallic Au and Pt Species on Ceria-Based Water-Gas Shift Catalysts , 2003, Science.
[36] Robert J. Farrauto,et al. Determination of kinetic parameters for the water-gas shift reaction on copper catalysts under realistic conditions for fuel cell applications , 2003 .
[37] Yohei Tanaka,et al. Water gas shift reaction for the reformed fuels over Cu/MnO catalysts prepared via spinel-type oxide , 2003 .
[38] F. Patcas,et al. Synergy effect between copper and manganese oxides in hopcalite catalysts , 2001 .
[39] Ryōji Takahashi,et al. Distinction between Surface and Bulk Oxidation of Cu through N2O Decomposition , 2000 .
[40] A. Dandekar,et al. Decomposition and reduction of N2O over copper catalysts , 1999 .
[41] Simone Morpurgo,et al. Preparation, characterisation and catalytic activity of CuZn-based manganites obtained from carbonate precursors , 1998 .