Few-Layer Nanoplates of Bi 2 Se 3 and Bi 2 Te 3 with Highly Tunable Chemical Potential

Keyphrases

• Bismuth Telluride 100%
• Highly Tunable 100%
• Chemical Potential 100%
• Few-layer 100%
• Nanoplates 100%
• Quintuple Layers 80%
• Topological Insulator 60%
• Ultrathin 40%
• Transport Measurements 40%
• Nanomaterials 20%
• Silica 20%
• Band Gap 20%
• Surface-to-volume Ratio 20%
• Atomic Layers 20%
• Layered Structure 20%
• Spectroscopic Measurement 20%
• Dirac Cone 20%
• Thickness Dependence 20%
• Surface States 20%
• Carrier Concentration 20%
• High-k Dielectric 20%
• Nanoribbon 20%
• Quantum Phase 20%
• Van Der Waals Interaction 20%
• Surface Properties 20%
• Large Surface 20%
• Sb2Se3 20%
• Catalyst-free 20%
• Top Gate 20%
• State Effects 20%
• Optical Image 20%
• Photoemission Spectroscopy 20%
• Bi2Se3 Nanoplates 20%
• Covalently Bonded 20%
• Vapor-solid Growth Mechanism 20%
• Metallic Surface State 20%
• Low-temperature Transport 20%

Engineering

• Surface State 100%
• Chemical Potential 100%
• Nanomaterial 50%
• Low-Temperature 50%
• Anisotropic 50%
• Carrier Concentration 50%
• Volume Ratio 50%
• Growth Mechanism 50%
• Atomic Layer 50%
• Layered Structure 50%
• Energy Gap 50%
• Metallic Surface 50%
• Dielectrics 50%
• Photoemission 50%

Material Science

• Dielectric Material 100%
• Carrier Concentration 100%
• Surface Property 100%
• Nanoribbon 100%
• Theoretical Calculation 100%
• Nanocrystalline Material 100%
• Photoemission Spectroscopy 100%