Identifying an Alternative Hydride Transfer Pathway for CO₂ Reduction on CdTe(111) and CuInS₂(112) Surfaces

Keyphrases

• CuInS2 100%
• Cadmium Telluride 100%
• Hydride Transfer 100%
• Transfer Path 100%
• CO2 Reduction 100%
• Pyridine 33%
• Hydrogen Evolution 33%
• Surface Hydride 33%
• Density Functional Theory 16%
• Formic Acid 16%
• Thermodynamic Driving Force 16%
• Operative 16%
• Hydrides 16%
• Activation Barrier 16%
• Active Intermediate 16%
• Via Density 16%
• CO2 Reduction Pathway 16%
• Photoelectrode 16%
• Methanol Formation 16%
• Carbon Dioxide (CO2) Reduction 16%
• CO2 Reduction Mechanism 16%

Chemistry

• Carbon Dioxide Reduction 100%
• Carbon Dioxide 66%
• formation 50%
• Pyridine 33%
• Hydrogen 33%
• Formic Acid 16%
• Methanol 16%
• Photoelectrode 16%
• electrode 16%
• Density Functional Theory 16%
• Thermodynamics 16%