Mitigation of Oxygen Evolution and Phase Transition of Li-Rich Mn-Based Layered Oxide Cathodes by Coating with Oxygen-Deficient Perovskite Compounds

Keyphrases

• Capacity Decay 50%
• Capacity Retention 50%
• Carbon Dioxide 50%
• Cathode Material 50%
• Cation Mixing 50%
• Coating Layer 100%
• Cyclability 50%
• Cycling Stability 50%
• Differential Electrochemical Mass Spectrometry 50%
• Electrochemical Impedance Spectroscopy 50%
• First Cycle 50%
• Gas Evolution 50%
• High Discharge Capacity 50%
• High-flow Oxygen 50%
• High-voltage Batteries 50%
• High-voltage Lithium-ion Battery 50%
• Interfacial Side Reactions 100%
• Irreversible Capacity Loss 50%
• Li-rich Mn-based Layered Oxide Cathodes 100%
• Operando 50%
• Oxygen Evolution Reaction 100%
• Oxygen Vacancy Concentration 50%
• Oxygen-deficient Perovskites 100%
• Pechini Method 50%
• Perovskite 50%
• Perovskite Compounds 100%
• Phase Transition 100%
• Post-mortem Analysis 50%
• Scanning Transmission Electron Microscopy 50%
• Stable Interface 50%
• Structure Evolution 50%
• Uniform Coating 50%
• Voltage Decay 100%
• Voltage Stability 50%
• X-ray Photoelectron Spectroscopy 50%

Engineering

• Battery (Electrochemical Energy Engineering) 50%
• Discharge Capacity 50%
• Energy Density 100%
• Irreversible Cycle 50%
• Layer Coating 100%
• Lithium-Ion Batteries 50%
• Oxide Cathode 100%
• Oxygen Vacancy 50%
• Ray Photoelectron Spectroscopy 50%
• Retention Capacity 50%
• Transmissions 50%
• Voltage Stability 50%

Material Science

• Battery (Electrochemical Energy Engineering) 33%
• Carbon Dioxide 33%
• Cathode 100%
• Cathode Material 33%
• Dielectric Spectroscopy 33%
• Energy Density 66%
• Lithium Ion Battery 33%
• Oxide Compound 100%
• Oxygen Evolution 100%
• Oxygen Vacancy 33%
• Scanning Transmission Electron Microscopy 33%
• X-Ray Photoelectron Spectroscopy 33%