Influence of Carbon Support Surface Modification on the Performance of Nickel Catalysts in Carbon Dioxide Hydrogenation
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J. A. Stewart | P. D. de Jongh | Bart D. Vandegehuchte | J. Meeldijk | J. V. D. van der Hoeven | N. Visser | D. J. Morgan | Luc C. J. Smulders | Juliette C. Verschoor | Francesco Mattarozzi | J. Stewart
[1] F. Studt,et al. Particle Size Effects of Carbon Supported Nickel Nanoparticles for High Pressure CO2 Methanation , 2022, ChemCatChem.
[2] J. A. Stewart,et al. Manganese Oxide as a Promoter for Copper Catalysts in CO2 and CO Hydrogenation , 2022, ChemCatChem.
[3] N. Masoud,et al. The Synergetic Effect of Support‐oxygen Groups and Pt Particle Size in the Oxidation of α‐D‐glucose: A Proximity Effect in Adsorption , 2022, ChemCatChem.
[4] P. D. de Jongh,et al. Insight into the Nature of the ZnOx Promoter during Methanol Synthesis , 2022, ACS catalysis.
[5] Y. Kolen’ko,et al. Understanding the importance of N-doping for CNT-supported Ni catalysts for CO2 methanation , 2022, Carbon.
[6] P. Cloetens,et al. Digitization in Catalysis Research: Towards a Holistic Description of a Ni/Al2O3 Reference Catalyst for CO2 Methanation , 2022, ChemCatChem.
[7] L. Rossi,et al. Tuning CO2 Hydrogenation Selectivity by N-Doped Carbon Coating over Nickel Nanoparticles Supported on SiO2 , 2022, ACS Sustainable Chemistry & Engineering.
[8] Neal Fairley,et al. Systematic and collaborative approach to problem solving using X-ray photoelectron spectroscopy , 2021 .
[9] D. Morgan. Comments on the XPS Analysis of Carbon Materials , 2021, C.
[10] D. Morgan. Core-level reference spectra for bulk graphitic carbon nitride (g-C3N4) , 2021, Surface Science Spectra.
[11] Wei Xia,et al. Nickel nanoparticles supported on nitrogen–doped carbon nanotubes are a highly active, selective and stable CO2 methanation catalyst , 2021, Journal of Energy Chemistry.
[12] Glenn J. Sunley,et al. Manganese oxide promoter effects in the copper-catalyzed hydrogenation of ethyl acetate , 2020, Journal of Catalysis.
[13] S. Kawi,et al. Conversion of CO2 to C1 chemicals: Catalyst design, kinetics and mechanism aspects of the reactions , 2020 .
[14] Jing Xu,et al. Essential Role of the Support for Nickel-Based CO2 Methanation Catalysts , 2020 .
[15] O. Bondarchuk,et al. The role of surface properties in CO2 methanation over carbon-supported Ni catalysts and their promotion by Fe , 2020 .
[16] Glenn J. Sunley,et al. Particle size effects in copper-catalyzed hydrogenation of ethyl acetate , 2020 .
[17] N. Charisiou,et al. The Role of Alkali and Alkaline Earth Metals in the CO2 Methanation Reaction and the Combined Capture and Methanation of CO2 , 2020, Catalysts.
[18] C. Vogt,et al. Alkali Promotion in the Formation of CH4 from CO2 and Renewably Produced H2 over Supported Ni Catalysts , 2020 .
[19] E. Hensen,et al. Ni-Mn catalysts on silica-modified alumina for CO2 methanation , 2020 .
[20] F. Su,et al. Reduced graphene oxide supported Ni-Ce catalysts for CO2 methanation: The support and ceria promotion effects , 2019 .
[21] K. D. de Jong,et al. Control of metal-support interactions in heterogeneous catalysts to enhance activity and selectivity , 2019, Nature Catalysis.
[22] K. Stöwe,et al. Is the CO2 methanation on highly loaded Ni-Al2O3 catalysts really structure-sensitive? , 2019, Applied Catalysis B: Environmental.
[23] D. Mattia,et al. N-Doped Fe@CNT for Combined RWGS/FT CO2 Hydrogenation , 2019, ACS Sustainable Chemistry & Engineering.
[24] J. Yao,et al. Facile synthesis of single-nickel-atomic dispersed N-doped carbon framework for efficient electrochemical CO2 reduction , 2019, Applied Catalysis B: Environmental.
[25] Wei Wang,et al. Nickel Nanoparticles Decorated Nitrogen-Doped Carbon Nanotubes (Ni/N-CNT); a Robust Catalyst for the Efficient and Selective CO2 Methanation , 2018, ACS Applied Energy Materials.
[26] A. Petala,et al. Methanation of CO 2 over alkali-promoted Ru/TiO 2 catalysts: I. Effect of alkali additives on catalytic activity and selectivity , 2018 .
[27] Zhong Li,et al. Nitrogen-doped graphene supported copper catalysts for methanol oxidative carbonylation: Enhancement of catalytic activity and stability by nitrogen species , 2018 .
[28] Ivan Lazić,et al. Phase contrast scanning transmission electron microscopy imaging of light and heavy atoms at the limit of contrast and resolution , 2018, Scientific Reports.
[29] P. D. de Jongh,et al. Carbon Support Surface Effects in the Gold-Catalyzed Oxidation of 5-Hydroxymethylfurfural , 2017, ACS catalysis.
[30] M. Ferraro,et al. Supported Catalysts for CO2 Methanation: A Review , 2017 .
[31] M. Oschatz,et al. Effects of the Functionalization of the Ordered Mesoporous Carbon Support Surface on Iron Catalysts for the Fischer–Tropsch Synthesis of Lower Olefins , 2017, ChemCatChem.
[32] Tae Wook Kim,et al. CO and CO2 methanation over supported Ni catalysts , 2016 .
[33] Jannik C. Meyer,et al. In Situ Observations of Phase Transitions in Metastable Nickel (Carbide)/Carbon Nanocomposites , 2016, The journal of physical chemistry. C, Nanomaterials and interfaces.
[34] U. Bentrup,et al. Mechanistic Study of Low-Temperature CO2 Hydrogenation over Modified Rh/Al2O3 Catalysts , 2016 .
[35] Xin Wang,et al. Catalysis mechanisms of CO2 and CO methanation , 2016 .
[36] Ding Ma,et al. Nickel catalyst stabilization via graphene encapsulation for enhanced methanation reaction , 2016 .
[37] Chengfa Jiang,et al. Mesoporous nickel catalyst supported on multi-walled carbon nanotubes for carbon dioxide methanation ☆ , 2016 .
[38] Ivan Lazić,et al. Phase contrast STEM for thin samples: Integrated differential phase contrast. , 2016, Ultramicroscopy.
[39] M. Rønning,et al. Effect of support surface treatment on the synthesis, structure, and performance of Co/CNT Fischer–Tropsch catalysts , 2015 .
[40] P. D. de Jongh,et al. Recent developments in the synthesis of supported catalysts. , 2015, Chemical reviews.
[41] C. Gommes,et al. Nanoparticle growth in supported nickel catalysts during methanation reaction--larger is better. , 2014, Angewandte Chemie.
[42] Shudong Wang,et al. Insight into the reaction route of CO2 methanation: Promotion effect of medium basic sites , 2014 .
[43] J. Figueiredo. Functionalization of porous carbons for catalytic applications , 2013 .
[44] G. Centi,et al. Catalysis for CO2 conversion: a key technology for rapid introduction of renewable energy in the value chain of chemical industries , 2013 .
[45] De Chen,et al. Carbon Nanomaterials in Catalysis: Proton Affinity, Chemical and Electronic Properties, and their Catalytic Consequences , 2013 .
[46] Wei Xia,et al. The Role of Oxygen‐ and Nitrogen‐containing Surface Groups on the Sintering of Iron Nanoparticles on Carbon Nanotubes in Different Atmospheres , 2012 .
[47] Guangwen Xu,et al. A thermodynamic analysis of methanation reactions of carbon oxides for the production of synthetic natural gas , 2012 .
[48] Kwang-Ryeol Lee,et al. Improved binding between copper and carbon nanotubes in a composite using oxygen-containing functional groups , 2011 .
[49] Wan Mohd Ashri Wan Daud,et al. A review on surface modification of activated carbon for carbon dioxide adsorption , 2010 .
[50] J. A. Menéndez,et al. Synthesis of carbon-supported nickel catalysts for the dry reforming of CH4 , 2010 .
[51] D. Su,et al. Tuning the acid/base properties of nanocarbons by functionalization via amination. , 2010, Journal of the American Chemical Society.
[52] R. Farnood,et al. Preparation of multiwalled carbon nanotube-supported nickel catalysts using incipient wetness method. , 2010, The journal of physical chemistry. A.
[53] J. Bitter,et al. On the origin of the cobalt particle size effects in Fischer-Tropsch catalysis. , 2009, Journal of the American Chemical Society.
[54] A. Dalai,et al. Effect of pre-treatment on physico-chemical properties and stability of carbon nanotubes supported iron Fischer-Tropsch catalysts , 2009 .
[55] Wei Xia,et al. Thermal Stability and Reducibility of Oxygen-Containing Functional Groups on Multiwalled Carbon Nanotube Surfaces: A Quantitative High-Resolution XPS and TPD/TPR Study , 2008 .
[56] J. Figueiredo,et al. Tuning of texture and surface chemistry of carbon xerogels. , 2008, Journal of colloid and interface science.
[57] F. Rodríguez-Reinoso,et al. Carbon as Catalyst Support , 2008 .
[58] T. Bandosz. Surface Chemistry of Carbon Materials , 2008 .
[59] Jens R. Rostrup-Nielsen,et al. High temperature methanation sintering and structure sensitivity , 2007 .
[60] 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.
[61] K. D. de Jong,et al. Synthesis of Highly Loaded Highly Dispersed Nickel on Carbon Nanofibers by Homogeneous Deposition–Precipitation , 2003 .
[62] J. J. Pis,et al. Influence of oxygen-containing functional groups on active carbon adsorption of selected organic compounds , 2002 .
[63] J. Figueiredo,et al. Modification of the surface chemistry of activated carbons , 1999 .
[64] F. Carrasco-Marín,et al. Activated Carbon Surface Modifications by Nitric Acid, Hydrogen Peroxide, and Ammonium Peroxydisulfate Treatments , 1995 .
[65] S. Scaglione,et al. Comparison among XAES, PELS and XPS techniques for evaluation of Sp2 percentage in a-C:H , 1994 .
[66] C. Louis,et al. Characterization of nickel/silica catalysts during impregnation and further thermal activation treatment leading to metal particles , 1993 .
[67] R. Wandas,et al. Oxygen elimination in the process of non-catalytic liquefaction of brown coal , 1993 .
[68] D. Suh,et al. Effect of surface oxygen groups of carbon supports on the characteristics of Pd/C catalysts , 1993 .
[69] J. A. Schwarz,et al. Estimation of the point of zero charge of simple oxides by mass titration , 1989 .
[70] F. Rodríguez-Reinoso,et al. The effect of oxygen surface groups of the support on platinum dispersion in Pt/carbon catalysts , 1989 .