International Journal of Hydrogen Energy · 2023 · 24 citations · 43 references
Natural SciencesChemical EngineeringMaterials ScienceCatalysisInorganic ChemistryReaction EngineeringBiogas ProductionCatalyst DesignCatalyst StabilityCatalytic MaterialsCatalytic Reaction EngineeringSupported CatalystsBimetallic CatalystsBiogasCarbon DioxideChemical DeactivationCokingMetal Oxide CatalystsSupported Bimetallic CatalystsSyngas Production
Dry reforming of methane is a very appealing catalytic route biogas (mainly composed by greenhouse gases: carbon dioxide and methane) conversion into added value syngas, which could be further upgraded to produce liquid fuels and added value chemicals. However, the major culprits of this reaction are coking and active phase sintering that result in catalysts deactivation. Herein we have developed a highly stable bimetallic Ni–Rh catalyst supported on mixed CeO2–Al2O3 oxide using low-noble metal loadings. The addition of small amounts of rhodium to nickel catalysts prevents coke formation and improves sintering resistance, achieving high conversions over extended reaction times hence resulting in promising catalysts for biogas upgrading.
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Mechanisms of catalyst deactivation
Calvin H. Bartholomew · Applied Catalysis A General · 2001 · 3K citations
Surface area and pore texture of catalysts
G. Leofanti, M. Padovan, G. Tozzola et al. · Catalysis Today · 1998 · 1.8K citations
Natural Sciences, Chemical Engineering, Materials Science +14
CO2-Reforming of Methane over Transition Metals
J.R. Rostrup-Nielsen, Jørn H. Hansen · Journal of Catalysis · 1993 · 1.3K citations