This research aims to address catalyst deactivation in dry reforming of methane by optimizing the reaction stoichiometry.
Examined the impact of spatial decoupling on the reactions involved in dry reforming.
Analyzed catalyst performance under varying conditions to measure effectiveness.
Utilized experimental setups to maintain ideal stoichiometry.
Achieved near-stoichiometric conversion of CH4 and CO2, leading to increased catalyst stability.
Demonstrated a significant reduction in catalyst deactivation through optimized conditions.
Reported improved hydrogen and carbon monoxide yield compared to traditional methods.
Abstract
The practical application of dry reforming of methane (DRM) is hindered by catalyst deactivation, primarily due to the deviation of the ideal 1:1 H2:CO stoichiometry for competitive CH4 and CO2...