Determination of Si/graphite anode composition for new generation Li-ion batteries: a case study

Keyphrases

• Li-ion Battery 100%
• Binder 100%
• Conductive Properties 100%
• Si-C 100%
• Lithium Storage Capacity 100%
• Silicon-graphite Anode 100%
• Anode Composition 100%
• High Lithium Storage 100%
• Adhesion 50%
• Material Properties 50%
• Capacity Fade 50%
• Extraction Methods 50%
• Nanomaterials 50%
• High Capacity 50%
• Composite Materials 50%
• Lithium-ion Battery 50%
• Active Materials 50%
• Silicon Anode 50%
• Active Substances 50%
• Environmental Sensitivity 50%
• Good Mechanical Properties 50%
• Capacitive Properties 50%
• Structural Characterization 50%
• Volume Expansion 50%
• Anode Material 50%
• Hybrid Materials 50%
• Silicon-graphite 50%
• Volume Change 50%
• Polymer Ratio 50%
• Insertion Technique 50%
• Physical Mixing 50%
• Lithium Insertion 50%
• Lithium-ion Anode 50%
• Lithium-ion Battery Technology 50%
• Active Polymer 50%
• Lithium Extraction 50%
• Binder Ratio 50%
• Working Potential 50%
• Si-C Anodes 50%
• Active Binder 50%
• Binder Polymer 50%
• Short Lifetime 50%

Engineering

• Binders 100%
• Lithium Ion Battery 100%
• Conductive 66%
• Lithium-Ion Batteries 66%
• Storage Capacity 66%
• Composite Material 33%
• Capacitive 33%
• Good Performance 33%
• Nanomaterial 33%
• Active Material 33%
• Silicon Anode 33%
• Polymer Binder 33%
• Active Substance 33%
• Battery (Electrochemical Energy Engineering) 33%
• Extraction Process 33%

Material Science

• Anode 100%
• Lithium Ion Battery 100%
• Lithium 75%
• Battery (Electrochemical Energy Engineering) 25%
• Composite Material 25%
• Nanocrystalline Material 25%
• Materials Property 25%
• Lithium Ion 25%
• Anode Material 25%
• Hybrid Material 25%