The conversion reaction mechanism of bimetallic Ni-Fe hydroxycarbonate and its encapsulation in carbon nanospheres for achieving excellent Li-ion storage performance

Keyphrases

• Storage Performance 100%
• Heterointerface 100%
• Li-ion 100%
• Lithium Carbonate 100%
• Conversion Mechanism 100%
• Hydroxycarbonate 100%
• Carbon Nanospheres 100%
• Bimetallic Ni-Fe 100%
• Electrochemical Properties 50%
• Composite Materials 50%
• High Current Density 50%
• Optimum Composition 50%
• Band Gap 50%
• Electrochemical Performance 50%
• In Situ 50%
• Anions 50%
• Li + 50%
• High Electrochemical Performance 50%
• Anode Material 50%
• Lithium-ion Battery 50%
• Discharge Capacity 50%
• NiFe 50%
• Lithium Oxide 50%
• Internal Electric Field 50%
• High Reversible Capacity 50%
• Ex Situ Technique 50%
• Initial Cycles 50%
• High-rate Performance 50%
• Reversible Conversion 50%
• Iron-nickel Alloy 50%
• Lithium Hydroxide 50%
• Transition Metal Cations 50%
• Carbon Shell 50%
• Stable Cycle Performance 50%
• In Situ Precipitation 50%
• Lithium Storage Mechanism 50%
• Heterostructure Composite 50%
• Hollow Carbon Nanospheres 50%

Material Science

• Electrochemical Property 100%
• Nanosphere 100%
• Lithium Ion 100%
• Amorphous Material 50%
• Composite Material 50%
• Density 50%
• Anode 50%
• Lithium 50%
• Lithium Ion Battery 50%
• Anode Material 50%
• Transition Metal 50%
• Phase Composition 50%