Boosting liquid hydrocarbons selectivity from CO₂ hydrogenation by facilely tailoring surface acid properties of zeolite via a modified Fischer-Tropsch synthesis

Keyphrases

• CO2 Hydrogenation 100%
• Zeolite 100%
• Liquid Hydrocarbons 100%
• Fischer-Tropsch Synthesis 100%
• Hydrocarbon Selectivity 100%
• Acid Property 100%
• Liquid Fuel 66%
• FEniCS 66%
• ZSM-5 66%
• Olefins 66%
• ZSM-5 Zeolite 66%
• Greenhouse 33%
• Chemical Inertness 33%
• NH3-TPD 33%
• Hydrocarbon Formation 33%
• X-ray Photoelectron Spectroscopy 33%
• Efficient Utilization 33%
• Fe-zeolite 33%
• Sustainable Development 33%
• Temperature Programmed Desorption 33%
• High Kinetics 33%
• Kinetic Barrier 33%
• Produced Water 33%
• Brunauer-Emmett-Teller 33%
• Saturated Hydrocarbons 33%
• ZSM-5 Catalyst 33%
• Valuable Chemicals 33%
• Cracking Reaction 33%
• Efficient Production 33%
• CO2 Molecule 33%
• Catalytic Conversion 33%
• Catalyst Treatment 33%
• C5+ Selectivity 33%
• Surface Environment 33%
• Secondary Reaction 33%
• Mn2+ 33%
• Isomerization Reaction 33%
• K-ion 33%
• Cu2+ 33%
• Ion Exchange Strategy 33%
• La3+ 33%
• Ammonium Ion 33%
• Microenvironment 33%
• Exchange Strategy 33%
• Mg2+ 33%
• Na + 33%
• Aromatization Reaction 33%
• X-ray Diffractometer 33%
• Bifunctional Catalyst 33%
• Transmission Electron Microscopy 33%

Chemical Engineering

• Hydrogenation 100%
• Fischer-Tropsch Synthesis 100%
• Carbon Dioxide 100%
• Olefin 50%
• Temperature Programmed Desorption 50%
• Ion Exchange 50%