CO₂ methanation over Fe- and Mn-promoted co-precipitated Ni-Al catalysts: Synthesis, characterization and catalysis study

Keyphrases

• Catalyst Synthesis 100%
• CO2 Methanation 100%
• NiAl 100%
• Co-precipitated 100%
• Thermal Stability 50%
• Material Characterization 50%
• High Density 50%
• Highly Active 50%
• Catalytic Activity 50%
• Catalytic Behavior 50%
• Catalyst Activation 50%
• In Situ IR Spectroscopy 50%
• Enhanced CO2 50%
• Stability Performance 50%
• Structure-activity Relationship 50%
• Primary Energy 50%
• Ni Surface 50%
• Activity Performance 50%
• Temperature Characteristics 50%
• Aging Period 50%
• Characterization Studies 50%
• Mn Oxides 50%
• Oxide Phase 50%
• Mixed Oxides 50%
• Ni Loading 50%
• H2 Chemisorption 50%
• In Situ XRD 50%
• CO2 Adsorption Capacity 50%
• Fe-Ni Alloy 50%
• CO2 Chemisorption 50%
• Constant pH 50%
• Coprecipitated Catalyst 50%
• Methanation Reaction 50%
• Energy Feedstock 50%
• Sustainable Pathways 50%

Material Science

• Catalysis 100%
• Carbon Dioxide 100%
• Oxide Compound 33%
• Density 16%
• X-Ray Diffraction 16%
• Catalyst Activity 16%
• Thermal Stability 16%
• Infrared Spectroscopy 16%
• Chemisorption 16%
• Coprecipitation 16%
• Feedstock 16%
• Iron-Nickel Alloys 16%

Chemical Engineering

• Carbon Dioxide 100%
• Methanation 100%
• Carbon Dioxide Capture 25%
• Coprecipitation 25%
• H2 Chemisorption 25%
• CO2 Chemisorption 25%