Electronic engineering of amorphous Fe-Co-S sites in hetero-nanoframes for oxygen evolution and flexible Al-air batteries

Keyphrases

• FeCo 100%
• Amorphous Fe 100%
• Hetero 100%
• Electronic Engineering 100%
• Oxygen Evolution Reaction 100%
• Alkaline Oxygen Evolution Reaction 100%
• Nanoframes 100%
• Flexible Al-air Batteries 100%
• Metal-air Battery 66%
• Electrochemical Process 33%
• High Power 33%
• Electronic Structure 33%
• Electron Transfer 33%
• Energy Density 33%
• Hybrid System 33%
• DFT Calculations 33%
• Flexible Electronics 33%
• Oxygen Reduction Reaction 33%
• Aluminum-air Battery 33%
• Stretching Conditions 33%
• Peak Power Density 33%
• Flexible Electronic Devices 33%
• Air Electrode 33%
• Bending Condition 33%
• Cathode Catalyst 33%
• Outstanding Stability 33%
• Electrode Catalyst 33%
• Al-air Battery 33%
• Air-to-ground 33%
• Prussian Blue Analogues 33%
• Water Splitting Devices 33%
• Electrochemical Oxygen Evolution Reaction 33%
• Optimized Electronic Structure 33%

Engineering

• Oxygen Evolution Reaction 100%
• Electronic Engineering 100%
• Flexible Electronics 40%
• Electronic State 40%
• Energy Levels 40%
• Experimental Result 20%
• Critical Role 20%
• Electrochemical Process 20%
• Supply System 20%
• Aluminum-Air Battery 20%
• Peak Power Density 20%
• Oxygen Reduction Reaction 20%
• Water Splitting 20%
• Flux Density 20%
• Discrete Fourier Transform 20%

Material Science

• Oxygen Evolution 100%
• Energy Levels 33%
• Water Splitting 16%
• Cathode 16%
• Aluminum 16%
• Density 16%
• Electron Transfer 16%
• Energy Density 16%