Ruthenium particle size and cesium promotion effects in Fischer–Tropsch synthesis over high-surface-area graphite supported catalysts
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[1] M. Fernández-García,et al. Time-Resolved XAS Investigation of the Local Environment and Evolution of Oxidation States of a Fischer–Tropsch Ru–Cs/C Catalyst , 2016 .
[2] A. Guerrero-Ruíz,et al. Effects of the reduction temperature over ex-chloride Ru Fischer–Tropsch catalysts supported on high surface area graphite and promoted by potassium , 2014 .
[3] Jia Yang,et al. Fischer–Tropsch synthesis: A review of the effect of CO conversion on methane selectivity , 2014 .
[4] A. Guerrero-Ruíz,et al. Surface properties of Ru particles supported on carbon materials: A microcalorimetric study of the effects over the CO chemisorptions of residual anionic species , 2013 .
[5] Freek Kapteijn,et al. Hierarchical H-ZSM-5-supported cobalt for the direct synthesis of gasoline-range hydrocarbons from syngas: Advantages, limitations, and mechanistic insight , 2013 .
[6] Qinghong Zhang,et al. Ru particle size effect in Ru/CNT-catalyzed Fischer-Tropsch synthesis , 2013 .
[7] K. D. de Jong,et al. Iron particle size effects for direct production of lower olefins from synthesis gas. , 2012, Journal of the American Chemical Society.
[8] J. Fierro,et al. Catalytic effects of ruthenium particle size on the Fischer–Tropsch Synthesis , 2011 .
[9] R. A. Santen,et al. CO dissociation on Ru and Co surfaces : the initial step in the Fischer-Tropsch synthesis , 2011 .
[10] Jinlin Li,et al. Preparation and characterization of stable Ru nanoparticles embedded on the ordered mesoporous carbon material for applications in Fischer–Tropsch synthesis , 2010 .
[11] Qinghong Zhang,et al. Development of Novel Catalysts for Fischer–Tropsch Synthesis: Tuning the Product Selectivity , 2010 .
[12] Young Ho Kim,et al. Alumina-supported iron oxide nanoparticles as Fischer–Tropsch catalysts: Effect of particle size of iron oxide , 2010 .
[13] D. J. Mowbray,et al. Self Blocking of CO Dissociation on a Stepped Ruthenium Surface , 2010 .
[14] G. Jacobs,et al. Fischer−Tropsch Synthesis: An In-Situ TPR-EXAFS/XANES Investigation of the Influence of Group I Alkali Promoters on the Local Atomic and Electronic Structure of Carburized Iron/Silica Catalysts , 2010 .
[15] D. Uzio,et al. Factors Governing the Catalytic Reactivity of Metallic Nanoparticles , 2010 .
[16] P. Concepción,et al. Cobalt particle size effects in Fischer–Tropsch synthesis: structural and in situ spectroscopic characterisation on reverse micelle-synthesised Co/ITQ-2 model catalysts , 2009 .
[17] J. Bitter,et al. On the origin of the cobalt particle size effects in Fischer-Tropsch catalysis. , 2009, Journal of the American Chemical Society.
[18] Qinghong Zhang,et al. Ruthenium nanoparticles supported on carbon nanotubes as efficient catalysts for selective conversion of synthesis gas to diesel fuel. , 2009, Angewandte Chemie.
[19] R. A. Santen,et al. Complementary structure sensitive and insensitive catalytic relationships. , 2009, Accounts of chemical research.
[20] James G. Goodwin,et al. Effect of K promotion of Fe and FeMn Fischer–Tropsch synthesis catalysts: Analysis at the site level using SSITKA , 2008 .
[21] Jinlin Li,et al. Fischer–Tropsch synthesis: The role of pore size for Co/SBA-15 catalysts , 2008 .
[22] James A. Dumesic,et al. Coupling of glycerol processing with Fischer–Tropsch synthesis for production of liquid fuels , 2007 .
[23] Jinlin Li,et al. Effect of catalyst pore size on the catalytic performance of silica supported cobalt Fischer–Tropsch catalysts , 2006 .
[24] Freek Kapteijn,et al. Cobalt particle size effects in the Fischer-Tropsch reaction studied with carbon nanofiber supported catalysts. , 2006, Journal of the American Chemical Society.
[25] M. Claeys,et al. Experimental approaches to the preparation of supported metal nanoparticles , 2006 .
[26] J. Walmsley,et al. Characterization of alumina-, silica-, and titania-supported cobalt Fischer–Tropsch catalysts , 2005 .
[27] A. Guerrero-Ruíz,et al. Further insights into the Ru nanoparticles–carbon interactions and their role in the catalytic properties , 2005 .
[28] Jinlin Li,et al. Fischer–Tropsch synthesis: the effect of Al2O3 porosity on the performance of Co/Al2O3 catalyst , 2005 .
[29] W. Raróg-Pilecka,et al. The effect of promoters on the electronic structure of ruthenium catalysts supported on carbon , 2004 .
[30] Wenping Ma,et al. Fischer−Tropsch Synthesis over Activated-Carbon-Supported Cobalt Catalysts: Effect of Co Loading and Promoters on Catalyst Performance , 2004 .
[31] E. Iglesia,et al. Control of Metal Dispersion and Structure by Changes in the Solid-State Chemistry of Supported Cobalt Fischer–Tropsch Catalysts , 2003 .
[32] W. Raróg-Pilecka,et al. Carbon-based ruthenium catalyst for ammonia synthesis: Role of the barium and caesium promoters and carbon support , 2003 .
[33] Yuhan Sun,et al. Support effect of Co/Al2O3 catalysts for Fischer–Tropsch synthesis☆ , 2003 .
[34] Yongqing Zhang,et al. Fischer–Tropsch synthesis: effect of small amounts of boron, ruthenium and rhenium on Co/TiO2 catalysts , 2002 .
[35] A. Guerrero-Ruíz,et al. Hydrogenation of citral on activated carbon and high-surface-area graphite-supported ruthenium catalysts modified with iron , 2001 .
[36] I. Arčon,et al. Characterization and Catalytic Behavior of Co/SiO2 Catalysts: Influence of Dispersion in the Fischer–Tropsch Reaction , 2001 .
[37] I. Rossetti,et al. Promoters effect in Ru/C ammonia synthesis catalyst , 2001 .
[38] S. T. Sie,et al. Gas- and liquid-phase residence time distribution in the three-levels-of-porosity reactor , 1999 .
[39] Hans Schulz,et al. Short history and present trends of Fischer–Tropsch synthesis , 1999 .
[40] A. Guerrero-Ruíz,et al. Study of some factors affecting the Ru and Pt dispersions over high surface area graphite-supported catalysts , 1998 .
[41] A. Guerrero-Ruíz,et al. Catalytic properties of carbon-supported ruthenium catalysts for n-hexane conversion , 1998 .
[42] Enrique Iglesia,et al. Design, synthesis, and use of cobalt-based Fischer-Tropsch synthesis catalysts , 1997 .
[43] G. Bond,et al. Catalysis by metals and alloys , 1995 .
[44] E. Iglesia,et al. Fischer-Tropsch synthesis on cobalt and ruthenium. Metal dispersion and support effects on reaction rate and selectivity , 1992 .
[45] J. G. Goodwin,et al. Reaction analysis of potassium promotion of Ru-catalyzed CO hydrogenation using steady-state isotopic transients , 1992 .
[46] W. Stickle,et al. Handbook of X-Ray Photoelectron Spectroscopy , 1992 .
[47] S. Reyes,et al. Transport-enhanced α-olefin readsorption pathways in Ru-catalyzed hydrocarbon synthesis , 1991 .
[48] J. Nørskov. Electronic factors in catalysis , 1991 .
[49] B. Tatarchuk,et al. Activated chemisorption of hydrogen on supported ruthenium: I. Influence of adsorbed chlorine on accurate surface area measurements , 1987 .
[50] Kevin J. Smith,et al. Fischer-Tropsch reaction studies with supported ruthenium catalysts. II: Effects of oxidative pretreatment at elevated temperatures , 1986 .
[51] V. Kuznetsov,et al. Properties of catalysts prepared by pyrolysis of Co2(CO)8 on silica containing surface Ti ions , 1985 .
[52] K. Shirota,et al. Support and promoter effect of ruthenium catalyst: I. Characterization of alkali-promoted ruthenium/alumina catalysts for ammonia synthesis , 1985 .
[53] C. H. Bartholomew,et al. Effects of support and dispersion on the CO hydrogenation activity/selectivity properties of cobalt , 1984 .
[54] A. Bell,et al. Effects of dispersion on the activity and selectivity of alumina-supported ruthenium catalysts for carbon monoxide hydrogenation , 1982 .
[55] M. Boudart. Structure of metallic catalysts , 1978 .