Quantitative Reflection Imaging for the Morphology and Dynamics of Live Aplysia californica Pedal Ganglion Neurons Cultured on Nanostructured Plasmonic Crystals

Keyphrases

• Aplysia Californica 100%
• Artificial Seawater 33%
• Bandpass Filter 33%
• Bioanalytics 33%
• Cellular Structure 33%
• Contrast Change 33%
• Film Thickness 33%
• Finite-difference Time-domain Simulation 33%
• Ganglion Neurons 100%
• Highly Sensitive 33%
• Imaging Systems 66%
• Imaging Techniques 33%
• In-situ Monitoring 33%
• Layer-by-layer Assembly Technique 33%
• Live-cell Dynamics 33%
• Living Cells 33%
• Metal-dielectric Interface 33%
• Nanostructures 100%
• Optical Response 66%
• Optical System 33%
• Pedal Ganglion 100%
• Peripheral Structures 33%
• Physicochemical Properties 33%
• Plasmonic Crystals 100%
• Plasmonic Features 33%
• Plasmonic Imaging 33%
• Polyelectrolyte 33%
• Polyelectrolyte Film 33%
• Polyelectrolyte Thin Films 33%
• Quantitative Imaging 33%
• Reflection Imaging 100%
• Substrate Interaction 33%
• Surface Plasmon Resonance 33%
• Thickness Change 33%
• Trypsin 33%
• Ultrathin 33%

Engineering

• Bandpass Filter 20%
• Dielectrics 20%
• Illustrates 20%
• Imaging Systems 40%
• Induced Surface 20%
• Live Cell 40%
• Model System 20%
• Optical Systems 20%
• Physicochemical Property 20%
• Plasmonics 100%
• Reference System 40%
• Surface Plasmon 20%
• Thickness Change 20%
• Thin Films 20%
• Time Domain 20%

Material Science

• Cellular Structure 33%
• Dielectric Material 33%
• Film Thickness 33%
• Finite Difference Method 33%
• Polyelectrolyte 100%
• Seawater 33%
• Self Assembly 33%
• Surface (Surface Science) 33%
• Surface Plasmon Resonance 33%
• Thin Films 33%