Ligand functionalization of titanium nanopattern enables the analysis of cell–ligand interactions by super-resolution microscopy

Keyphrases

• Rutile 100%
• Super-resolution Microscopy 100%
• Nanopatterning 100%
• Ligand Functionalization 100%
• Signaling Events 66%
• Single Molecule 33%
• Early Detection 16%
• Fluorescence Imaging 16%
• Immunology 16%
• Cell Membrane 16%
• Cell Imaging 16%
• Cell Culture Experiment 16%
• Cell Biology 16%
• Integrin 16%
• Regenerative Medicine 16%
• Arginine 16%
• Specific Ligands 16%
• Spatio-temporal Aspect 16%
• Glycine 16%
• Interaction between Cells 16%
• Environmental Parameters 16%
• Oxides 16%
• Humidity 16%
• Aspartate 16%
• Early Signal 16%
• Super-resolution Fluorescence Microscopy 16%
• Surface Chemistry 16%
• Dual-color 16%
• Super-resolution Imaging 16%
• Molecular Scale 16%
• Nanodots 16%
• Color Super Resolution 16%
• Nanofabrication 16%
• Fibronectin Binding 16%
• Nanoline 16%
• Imaging Experiment 16%
• Metallic Materials 16%
• Plasmonic Effect 16%
• Dielectric Materials 16%
• Geometry Manipulation 16%

Biochemistry, Genetics and Molecular Biology

• Cell Culture 100%
• Cell Membrane 100%
• Fluorescence Microscopy 100%
• Integrin 100%
• Super-Resolution Microscopy 100%
• Fibronectin 100%
• Arginine 100%
• Aspartic Acid 100%

Material Science

• Titanium 100%
• Titanium Dioxide 100%
• Cell Membrane 33%
• Fluorescence Microscopy 33%
• Oxide Compound 33%
• Nanodots 33%
• Metal 33%
• Surface (Surface Science) 33%
• Dielectric Material 33%
• Arginine 33%