Toward large-scale CVD graphene growth by enhancing reaction kinetics via an efficient interdiffusion mediator and mechanism study utilizing CFD simulations

Keyphrases

• Graphene Growth 100%
• Reaction Kinetics 100%
• Interdiffusion 100%
• Graphene Film 100%
• Computational Fluid Dynamics Simulation 100%
• Chemical Vapor Deposited (CVD) Graphene 100%
• Mechanism Study 100%
• Graphene-based Materials 66%
• Graphene 66%
• Graphene Synthesis 66%
• Crystallinity 33%
• Electrical Conductivity 33%
• Radial Direction 33%
• High-throughput 33%
• Transverse Direction 33%
• Yield Rate 33%
• Kinetic Reaction 33%
• Bilayer Graphene 33%
• Homogeneous nucleation 33%
• Tubular Furnace 33%
• Computational Fluid Dynamics 33%
• Cu Foil 33%
• Efficient Strategy 33%
• As-grown 33%
• Reactor Size 33%
• Chemical Vapor Deposition Method 33%
• High-throughput Methods 33%
• Dynamic Distribution 33%
• Gas Distribution 33%
• High Crystallinity 33%
• High-quality Graphene 33%
• Cu Loading 33%
• Carbon Cloth 33%
• Rapid Synthesis 33%
• Loading Density 33%
• Chemical Vapor Deposition Growth 33%
• Kinetic Growth 33%
• Rolled-up 33%
• Stack Configuration 33%
• Vertically Stacked 33%
• Multi-physical Simulation 33%
• Recipe Optimization 33%
• Highly Porous Carbon 33%
• Gas Balance 33%
• Reactive Gas Species 33%
• Porous Carbon Cloth 33%

Material Science

• Graphene 100%
• Chemical Vapor Deposition 100%
• Computational Fluid Dynamics 100%
• Film 30%
• Density 10%
• Nucleation 10%
• Electrical Conductivity 10%
• Monolayers 10%
• Porous Carbon 10%

Chemical Engineering

• Graphene 100%
• Vapor Deposition 100%
• Chemical Vapor Deposition 100%
• Film 30%