Catalytic Reforming of Methane and Alcohols for Hydrogen and Syngas Production
This community focuses on the chemical conversion of methane, methanol, and ethanol into hydrogen and synthesis gas using catalysts. The work is driven by the need to produce these fuels from carbon feedstocks while managing carbon dioxide emissions.
The research centers on dry reforming of methane, steam reforming, and methane pyrolysis. Recurring materials include nickel-based catalysts, alumina supports, and cerium oxides. Key methods involve partial oxidation, plasma-assisted reactions, and photothermal catalysis. Applications span hydrogen production, syngas generation, and the utilization of carbon dioxide. The work also addresses catalyst stability, specifically tackling coke formation and deactivation pathways in these high-temperature processes.
The largest share of the community's output is found in hydrogen research, representing 1.6% of all hydrogen research tracked, and 9,454 papers here. It also contributes significantly to carbon research, accounting for 0.6% of that element’s work.
The community comprises 16,091 papers, published primarily in the International Journal of Hydrogen Energy, Fuel, and Catalysis Today.
Recent work continues to focus on methane dry reforming and pyrolysis, with specific attention to photothermal catalysis using perovskite ferrites and the development of stable nickel-based catalysts for low-carbon hydrogen production.