Scanning force microscopy studies on molecular packing and friction anisotropy in thin films of tetranitrotetrapropoxycalix[4]arene

Keyphrases

• Microscopic Study 100%
• Arenes 100%
• Scanning Force Microscopy 100%
• Friction Anisotropy 100%
• Molecular Friction 100%
• Molecular Packing 100%
• I-domain 50%
• Optical Microscopy 33%
• Friction Force 33%
• Scanning Direction 33%
• Multidomain Structure 33%
• Friction Properties 33%
• Optical Properties 16%
• Functional Groups 16%
• X-ray Crystallography 16%
• Crystalline Domain 16%
• Force Measurement 16%
• Differential Scanning Calorimetry 16%
• High-resolution Scanning 16%
• Phase Transition 16%
• Annealed Films 16%
• Friction 16%
• Phase Behavior 16%
• Applied Load 16%
• Complementary Method 16%
• Microscopic Techniques 16%
• Morphological Properties 16%
• Phase Image 16%
• Thin Film Structure 16%
• Single Crystal X-ray Structure 16%
• Solid-state NMR 16%
• Packing Property 16%
• Magic Angle 16%
• Rectangular Symmetry 16%
• Measurement Mode 16%
• Tapping Mode 16%
• X-ray Diffraction Experiments 16%
• Multi-mode 16%
• Molecular Crystal Structures 16%

Material Science

• Thin Films 100%
• Anisotropy 100%
• Crystal Structure 66%
• Crystalline Material 33%
• X-Ray Diffraction 33%
• Single Crystal 33%
• Film 33%
• Nuclear Magnetic Resonance 33%
• Differential Scanning Calorimetry 33%
• Molecular Crystal 33%
• Morphology 33%
• X-Ray Crystallography 33%

Chemistry

• Liquid Film 100%
• Anisotropy 100%
• Crystal Structure 50%
• Optical Microscopy 50%
• Molecular Crystal 25%
• X-Ray Diffraction 25%
• Single Crystalline Solid 25%
• Phase Behavior 25%
• Differential Scanning Calorimetry 25%
• X-Ray Crystallography 25%
• Solid-State NMR 25%