In this research, conversion of carbon dioxide in the presence of TiO2 supported NiO catalyst has been investigated in a pulsed surface-wave sustained microwave discharge. The catalyst is prepared by combination of impregnation and plasma-treatment methods. The decomposition of TiO2 supported nickel nitrate was done by plasma, induced in three different gases (O2, Ar, CO2). NiO/TiO2 catalysts were formed. The supplied gas has a prominent effect on the chemical and physical properties of the prepared catalysts. The catalyst prepared with an Ar plasma increases almost by a factor of 2 the CO2 conversion and energy efficiencies, while the O2 or CO2 plasma prepared catalysts show little effect on the CO2 conversion in comparison with catalyst-f...
In the context of novel alternative energy technologies, plasma processing systems are investigated....
International audienceLow-pressure, glow discharge plasma catalytic CO2 methanation was investigated...
CO2 decomposition is a very strongly endothermic reaction where very high temperatures are required ...
The conversion of CO2 and CO2/H2O mixtures on a TiO2 supported NiO catalyst in a pulsed surface-wave...
An overview of the recent progress on plasma-assisted CO2 conversion in microwave discharges is give...
Plasma-catalytic hydrogenation of CO and CO2 for producing methane was investigated with a catalyst-...
Non-thermal plasmas provide a unique method of converting CO2 into CO and other fuels. However, how ...
The presence of defects in a catalyst support is known to benefit catalytic activity. In this work, ...
Simultaneous activation of CO2 and H2O was carried out in a non thermal plasma dielectric barrier di...
The conversion of carbon dioxide has been studied using a microwave plasma. A plasma is a highly ene...
The novel Ni-based catalyst for CO2 methanation, Ni-La/gamma-Al2O3, was prepared by the plasma metho...
Carbon monoxide oxidation by nitrous oxide was carried out in a dielectric barrier discharge reactor...
Thermodynamic and kinetic limitations can restrict the feasibility and scalability of conventional t...
We present an innovative approach for reacting carbon dioxide and water to give syngas by combining ...
We present an innovative approach for reacting carbon dioxide and water to give syngas by combining ...
In the context of novel alternative energy technologies, plasma processing systems are investigated....
International audienceLow-pressure, glow discharge plasma catalytic CO2 methanation was investigated...
CO2 decomposition is a very strongly endothermic reaction where very high temperatures are required ...
The conversion of CO2 and CO2/H2O mixtures on a TiO2 supported NiO catalyst in a pulsed surface-wave...
An overview of the recent progress on plasma-assisted CO2 conversion in microwave discharges is give...
Plasma-catalytic hydrogenation of CO and CO2 for producing methane was investigated with a catalyst-...
Non-thermal plasmas provide a unique method of converting CO2 into CO and other fuels. However, how ...
The presence of defects in a catalyst support is known to benefit catalytic activity. In this work, ...
Simultaneous activation of CO2 and H2O was carried out in a non thermal plasma dielectric barrier di...
The conversion of carbon dioxide has been studied using a microwave plasma. A plasma is a highly ene...
The novel Ni-based catalyst for CO2 methanation, Ni-La/gamma-Al2O3, was prepared by the plasma metho...
Carbon monoxide oxidation by nitrous oxide was carried out in a dielectric barrier discharge reactor...
Thermodynamic and kinetic limitations can restrict the feasibility and scalability of conventional t...
We present an innovative approach for reacting carbon dioxide and water to give syngas by combining ...
We present an innovative approach for reacting carbon dioxide and water to give syngas by combining ...
In the context of novel alternative energy technologies, plasma processing systems are investigated....
International audienceLow-pressure, glow discharge plasma catalytic CO2 methanation was investigated...
CO2 decomposition is a very strongly endothermic reaction where very high temperatures are required ...