Optomechanical microrheology of single adherent cancer cells

Keyphrases

• Living Cells 100%
• Cancer Cells 100%
• Individual Cells 100%
• Optomechanics 100%
• Loss Tangent 100%
• Microrheology 100%
• Fixed Cells 100%
• Physical Properties 50%
• Micromechanics 50%
• Non-invasive Measurement 50%
• HT-29 50%
• Mechanical Properties 50%
• Non-contact 50%
• Energy Storage 50%
• Optical Path Length 50%
• Interferometric Techniques 50%
• Soft Materials 50%
• Physiological Function 50%
• Viscoelasticity 50%
• Adherent Cells 50%
• Resonant Sensor 50%
• Kelvin-Voigt Model 50%
• Energy Loss 50%
• Cell Membrane Fluctuations 50%
• Solution Space 50%
• Cell Mechanical Properties 50%
• Phase Amplitude 50%
• Elastic Stiffness 50%
• Dimensionless Ratios 50%
• Close Relationships 50%
• Human Colon Cancer Cells 50%
• Two-degree-of-freedom 50%
• Viscoelastic Solution 50%
• Stiffness Loss 50%
• Viscous Loss 50%
• Phase Frequencies 50%

Engineering

• Individual Cell 100%
• Live Cell 100%
• Loss Tangent 100%
• Nanoscale 50%
• Significant Change 50%
• Energy Dissipation 50%
• Viscoelasticity 50%
• Optical Path Length 50%
• Soft Material 50%
• Kelvin-Voigt Model 50%
• Resonant Sensor 50%
• Space Solution 50%
• Energy Storage 50%
• Elastic Stiffness 50%
• Two Degree of Freedom 50%
• Dimensionless Ratio 50%

Material Science

• Silicon 100%
• Cell Membrane 100%
• Viscoelasticity 100%
• Physical Property 100%