Charge Transport through Organic Molecular Wires Embedded in Ultrathin Insulating Inorganic Layer

Keyphrases

• Ultrathin 100%
• Water Oxidation 100%
• Silica 100%
• Charge Transport 100%
• Organic Molecular 100%
• Molecular Wires 100%
• Inorganic Layer 100%
• Electrochemical Measurements 50%
• Proton Conductivity 50%
• Fourier Transform Infrared Spectroscopy (FT-IR) 50%
• Artificial Photosynthesis 50%
• Electron Transport 50%
• Oxide Film 50%
• Redox Couple 50%
• Oligo 50%
• Energy Levels 50%
• Oxide Surfaces 50%
• Dense Phase 50%
• Material Combination 50%
• Atomic Layer Deposition 50%
• Hybrid Materials 50%
• Carbon Dioxide Reduction 50%
• Visible Light 50%
• Redox Reaction 50%
• Temperature Conditions 50%
• Separation Membrane 50%
• Pinhole 50%
• Molecular Transport 50%
• Cyclic Voltammetry 50%
• Phenylenevinylene 50%
• Silica Layer 50%
• Mild Temperature 50%
• Essential Reactions 50%
• Co Oxide 50%
• STEM-EDX 50%
• Electronic Charge Transport 50%
• Photosystem 50%
• Reaction Environment 50%

Material Science

• Silicon Dioxide 100%
• Oxidation Reaction 66%
• Carbon Dioxide 33%
• Oxide Film 33%
• Cyclic Voltammetry 33%
• Electron Transfer 33%
• Oxide Surface 33%
• Energy-Dispersive X-Ray Spectroscopy 33%
• Hybrid Material 33%
• Redox Process 33%