In this view, electrochemical reduction of CO2 appears promising since it can lead to formation of methane, ethylene, methanol, formate, carbon monoxide, formic acid and other compounds that can be potentially used as fuels [8, 9, 10].
Both fluids decomposes with formation of methane.
This favors the fast hydrogenation of surface-adsorbed intermediates, leading to the formation of methane and a decrease in chain growth6.
The formation of methane hydrate in porous media was monitored and quantified with magnetic resonance imaging techniques (MRI).
The drawback of the catalyst was also confirmed; the formation of methane leading to the reduction of hydrogen formation.
The formation of methane results in hydrogen consumption to some extent and consequently alters the product composition.
This paper aims to present a kinetic study of formation of methane gas hydrate (GH) using artificial intelligence (AI) tools.
As a result, the conversion level of steam reforming reaction is increased while byproduct formation of methane is suppressed.
Potassium was found to enhance chain growth and to decrease the formation of methane.
In comparison to electrolysis with pure CO2, formation of methane was largely suppressed.
Hydrogen treatment increases activity and selectivity to aromatics while decreasing the formation of methane.
