Selective molecular assembly patterning: A new approach to micro- and nanochemical patterning of surfaces for biological applications

Keyphrases

• Biological Applications 100%
• Polyethylene Glycol 100%
• Poly-L-lysine 100%
• Molecular Assembly 100%
• Nanochemical 100%
• Microchemical 100%
• Phosphate 66%
• Rutile 66%
• Alkanes 66%
• SiO2 Surface 66%
• Protein Adsorption 66%
• Protein Adhesive 66%
• Silica 33%
• Time-of-flight Secondary Ion Mass Spectrometry (ToF-SIMS) 33%
• Fluorescence Microscopy 33%
• X-ray Photoelectron Spectroscopy 33%
• Assembly Process 33%
• Adsorption 33%
• Skin Fibroblasts 33%
• Focal Contact 33%
• SiO2 Matrix 33%
• Photolithography 33%
• Biologically Relevant 33%
• Silicon Dioxide 33%
• Cost-effective Fabrication 33%
• Novel Patterns 33%
• Modified TiO2 33%
• Pattern-based Approach 33%
• Modified SiO2 33%
• Protein-resistant 33%
• Metal Oxide Surface 33%
• Adsorption Studies 33%
• Chemical Pattern 33%
• Serum-containing Medium 33%
• Alkyl Phosphates 33%
• Adhesive Area 33%
• Selective Self-assembly 33%

Material Science

• Titanium Dioxide 100%
• Polyethylene Glycol 100%
• Lysine 100%
• Self Assembly 33%
• Secondary Ion Mass Spectrometry 33%
• X-Ray Photoelectron Spectroscopy 33%
• Oxide Surface 33%
• Silicon Dioxide 33%
• Metal Oxide 33%
• Fluorescence Microscopy 33%
• Fibroblast 33%

Engineering

• Bioengineering 100%
• Silicon Dioxide 100%
• Alkane 40%
• Protein Adsorption 40%
• Assembly Process 20%
• Time-of-Flight 20%
• Ray Photoelectron Spectroscopy 20%
• Surface Oxide 20%
• Optical Lithography 20%
• X Ray 20%
• Mass Spectrum 20%
• Patterning Technique 20%
• Mass Spectrometry 20%
• Create Pattern 20%
• Mass Spectroscopy 20%