Variation in the interface strength of silicon with surface engineered Ti₃C₂MXenes

Keyphrases

• Active Materials 20%
• Amorphous Silicon 40%
• Battery Technology 20%
• Charge Separation 20%
• Current Advancement 20%
• Cycle Stability 20%
• Density Functional Theory 20%
• Electron Charge 20%
• Electron Redistribution 20%
• Enhanced Electrochemical Performance 20%
• F-group 20%
• First-principles Calculations 20%
• Functional Groups 20%
• High Performance 20%
• Hydroxylated 20%
• Interface Strength 100%
• MXene-based Composites 60%
• Physicochemical Parameters 20%
• Strength Variation 20%
• Surface Chemistry 20%
• Surface Engineered 100%
• Surface Engineering 20%
• Surface Functional Groups 20%
• Surface OH Groups 20%
• Ti3C2 MXene 100%
• Ti3C2Tx MXene 20%
• Transition Metal Carbides 20%
• Two Dimensional Materials 20%

Material Science

• Amorphous Silicon 40%
• Battery (Electrochemical Energy Engineering) 20%
• Density 20%
• Functional Surface 20%
• Mechanical Strength 100%
• MXene 40%
• Silicon 100%
• Surface Engineering 20%
• Transition Metal Carbide 20%
• Two-Dimensional Material 20%

Engineering

• Active Material 20%
• Battery (Electrochemical Energy Engineering) 20%
• Engineering 20%
• Functional Group 40%
• Interface Strength 100%
• MXene 40%
• Two-Dimensional Materials 20%