In addition to the increasing importance in technical applications of the selective CO methanation, it is also an ideal model reaction for testing the catalytic performance of supported Ru catalysts in hydrogenation reactions. The focus of the present work is the molecular scale understanding of the relationship between structure and catalytic performance of supported Ru catalysts, with emphasis on the disentanglement of metal particle size effects from the metal-support interaction for non-reducible (zeolite and Al2O3) and reducible (TiO2) oxide support materials. The findings and mechanistic insights drawn from these studies were obtained using a multi-analytical approach, employing state of the art time on-stream reaction kinetic experim...
Catalytic hydrogenation of CO2 to methane was investigated over Ru/rutile TiO2, focusing on the infl...
The catalytic performance of a series of Ru/Al2O3 catalysts with Ru content in the 0.1-5% range was ...
Ruthenium (Ru) based catalysts effectively hydrogenate aromatic compounds, olefins, aldehydes, keton...
We have investigated the impact of realistic high water contents up to 30% on the selective methanat...
International audienceThe catalytic hydrogenation of CO2 is a relevant strategy for mitigating CO2 e...
The catalytic hydrogenation of CO2 is a relevant strategy for mitigating CO2 emissions and its appli...
Aiming at a detailed understanding of the role of metal–support interactions in the selective methan...
The effect of TiO2 phase structure on the dispersion of Ru nanoparticles was investigated in this st...
Summarization: The effect of metal crystallite size on the reaction mechanism of competitive methana...
Supported Ru catalysts show a very high selectivity for the selective methanation of CO in CO2-rich ...
We are also grateful to Frank Krumeich and Emma Oakton for electron microscopy images, obtained on t...
The hydrogenation of CO2 performed through heterogeneous catalysis is a pertinent strategy for mitig...
Ru/TiO<sub>2</sub> catalysts are highly active and selective in the selective methanation of CO in t...
The influence of support and metal precursor on Ru-based catalysts has been studied in the Fischer–...
The influence of support and metal precursor on Ru-based catalysts has been studied in the Fischer\u...
Catalytic hydrogenation of CO2 to methane was investigated over Ru/rutile TiO2, focusing on the infl...
The catalytic performance of a series of Ru/Al2O3 catalysts with Ru content in the 0.1-5% range was ...
Ruthenium (Ru) based catalysts effectively hydrogenate aromatic compounds, olefins, aldehydes, keton...
We have investigated the impact of realistic high water contents up to 30% on the selective methanat...
International audienceThe catalytic hydrogenation of CO2 is a relevant strategy for mitigating CO2 e...
The catalytic hydrogenation of CO2 is a relevant strategy for mitigating CO2 emissions and its appli...
Aiming at a detailed understanding of the role of metal–support interactions in the selective methan...
The effect of TiO2 phase structure on the dispersion of Ru nanoparticles was investigated in this st...
Summarization: The effect of metal crystallite size on the reaction mechanism of competitive methana...
Supported Ru catalysts show a very high selectivity for the selective methanation of CO in CO2-rich ...
We are also grateful to Frank Krumeich and Emma Oakton for electron microscopy images, obtained on t...
The hydrogenation of CO2 performed through heterogeneous catalysis is a pertinent strategy for mitig...
Ru/TiO<sub>2</sub> catalysts are highly active and selective in the selective methanation of CO in t...
The influence of support and metal precursor on Ru-based catalysts has been studied in the Fischer–...
The influence of support and metal precursor on Ru-based catalysts has been studied in the Fischer\u...
Catalytic hydrogenation of CO2 to methane was investigated over Ru/rutile TiO2, focusing on the infl...
The catalytic performance of a series of Ru/Al2O3 catalysts with Ru content in the 0.1-5% range was ...
Ruthenium (Ru) based catalysts effectively hydrogenate aromatic compounds, olefins, aldehydes, keton...