Novel Surface Molecular Functionalization Route to Enhance Environmental Stability of Tellurium-Containing 2D Layers

Keyphrases

• Tellurium 100%
• Environmental Stability 100%
• Diazonium 100%
• Molecular Functionalization 100%
• Two-dimensional Layer 100%
• Conductive Atomic Force Microscopy (C-AFM) 50%
• Physical Properties 50%
• Spectroscopic Measurement 50%
• Structural Change 50%
• Zirconia 50%
• Passivated 50%
• Absorption Spectroscopy 50%
• Surface Reaction 50%
• Density Functional Calculations 50%
• Ambient Conditions 50%
• Effective Method 50%
• Photoluminescence Spectroscopy 50%
• Physical Changes 50%
• Optical Band Gap 50%
• Microscopy 50%
• Tellurite 50%
• Surface Atom 50%
• Surface Reactivity 50%
• MoTe2 50%
• Environmental Sensitivity 50%
• Surface Engineering 50%
• Chemical Changes 50%
• Functional Surface 50%
• ZrTe3 50%
• Two-dimensional Surface 50%
• Gallium Telluride 50%
• Structural Anisotropy 50%
• Surface Restructuring 50%
• Two-dimensional Crystals 50%
• Emission Characteristics 50%
• Force Absorption 50%
• Strong Resistance 50%
• Withdrawal Process 50%
• Chemical Binding 50%
• Molybdenum Ditelluride 50%
• Bandgap Characteristics 50%

Material Science

• Photoluminescence 100%
• Zirconium 100%
• Density 100%
• Absorption Spectroscopy 100%
• Surface Reaction 100%
• Gallium 100%
• Molybdenum 100%
• Optical Anisotropy 100%
• Surface Engineering 100%
• Atomic Force Microscopy 100%

Chemistry

• Tellurium 100%
• Molecular Surface 100%
• Conductive Atomic Force Microscopy 50%
• Photoluminescence 50%
• Zirconium 50%
• Band Gap 50%
• Spectroscopy 50%
• Molybdenum 50%
• Gallium 50%
• Optical Anisotropy 50%
• Surface Reaction 50%
• Density Functional Theory 50%
• Absorption Spectroscopy 50%
• Chemical Reaction 50%