Design an in-situ reduction of Ni/C–SiO₂ catalyst and new insights into pretreatment effect for CH₄–CO₂ reforming reaction

Keyphrases

• Impregnation Method 100%
• Reforming Reaction 100%
• In Situ Reduction 100%
• Pretreatment Effect 100%
• N2 Atmosphere 100%
• Catalytic Performance 50%
• Excellent Catalytic Performance 50%
• Strong Interaction 50%
• Activity Stability 50%
• Composite Catalyst 50%
• Particle Dispersion 50%
• Superior Stability 50%
• H2-TPR 50%
• Carbon Source 50%
• Reduction Method 50%
• CO2 Atmosphere 50%
• Time on Stream 50%
• Novel Synthesis 50%
• Deactivation 50%
• Metal-support Interaction 50%
• H2 Atmosphere 50%
• Carbonization 50%
• Ni@SiO2 50%
• Calcination Process 50%
• Carbon-silica Composites 50%
• CH4-CO2 50%
• Dispersion Interaction 50%
• Reduction Agents 50%
• Ni Particles 50%
• Reductive Substances 50%

Chemical Engineering

• Carbon Dioxide 100%
• Calcination 25%
• Methane 25%
• Carbonization 25%
• Metal-Support Interaction 25%

Material Science

• Carbon Dioxide 100%
• X-Ray Diffraction 25%
• Catalyst Activity 25%
• Silicon Dioxide 25%
• Calcination 25%