Multiscale yttrium-stabilized pillaring and fluorinated interphase engineering enable fast Mn redox toward 5C-level layered sodium oxide

Keyphrases

• Yttrium 100%
• High Capacity 100%
• Sodium Oxide 100%
• Redox 100%
• High Cycling Stability 100%
• Electrolyte Additive 100%
• Interphase Design 100%
• Interfacial Stability 100%
• Reaction Kinetics 50%
• Carbonate 50%
• Sodium 50%
• Cost-effectiveness 50%
• High Cost 50%
• High Temperature 50%
• Methyl 50%
• Interlayer Spacing 50%
• Redox Reaction 50%
• Trifluoroethylene 50%
• Na-ion 50%
• Propylene Carbonate 50%
• Hybrid Structure 50%
• Atomic Scale 50%
• Full Cell 50%
• Rate Capability 50%
• Practical Utilization 50%
• Structural Degradation 50%
• Highly Exposed 50%
• Y Doping 50%
• Structural Collapse 50%
• Synergistic Approach 50%
• Scale Influence 50%
• Influence Mechanism 50%
• Electron Redistribution 50%
• Layered Oxide Cathode 50%
• Localized Electrons 50%
• Hard Carbon 50%

Material Science

• Sodium 100%
• Oxide Compound 100%
• Yttrium 100%
• Cathode 100%
• Electrolyte Additive 66%
• Redox Process 33%
• Sodium Ion Battery 33%
• Crystal Structure 33%

Chemical Engineering

• Propylene 100%