Measuring glassy and viscoelastic polymer flow in molecular-scale gaps using a flat punch mechanical probe

Keyphrases

• Extrusion 100%
• Film Thickness 100%
• Molecular Scale 100%
• Glassy Polymers 100%
• Polymer Flow 100%
• Mechanical Probe 100%
• Viscoelastic Polymer 100%
• Flat Punch 100%
• Falling Film Thickness 100%
• High Molecular Weight 66%
• Knee 66%
• Creep 66%
• Stress-strain 66%
• Polystyrene Films 66%
• Squeezing Flow 66%
• High Temperature 33%
• Order of Magnitude 33%
• Shear Thinning 33%
• In Films 33%
• High-resolution 33%
• Bulk Polymers 33%
• Mechanical Response 33%
• Polymer Film 33%
• Viscoelastic Response 33%
• Nanoimprint Lithography 33%
• High Strain Rate Loading 33%
• Stress-strain Curve 33%
• Radius of Gyration 33%
• Creep Measurement 33%
• Mechanical Relaxation 33%
• Large Strain 33%
• Molecular Confinement 33%
• Confinement Effect 33%
• Deformation Stress 33%
• Loading Rate 33%
• Mechanical Deformation 33%
• High Strain 33%
• General Loading 33%
• Strain Rate Loading 33%
• Stress Rate 33%
• Load Magnitude 33%
• Plastic Yielding 33%
• Flow Prediction 33%
• Ferry 33%
• Punch Indentation 33%
• Weight Degeneracy 33%
• Constitutive Flow Model 33%
• No-slip Flow 33%

Engineering

• Molecular Weight 100%
• Molecular Scale 100%
• Molecular Mass 100%
• Creep 37%
• Loading Rate 25%
• High Resolution 12%
• Thin Films 12%
• Indentation 12%
• Radius of Gyration 12%
• Mechanical Response 12%
• Strain Rate 12%
• Stress-Strain Curve 12%
• Nanoimprint Lithography 12%
• Mechanical Deformation 12%
• Temperature Time 12%
• Polymer Bulk 12%
• Stress Rate 12%
• Flow Model 12%
• Slip Flow 12%
• Confinement Effect 12%
• Shear Thinning/Thickening Behavior 12%

Material Science

• Film Thickness 100%
• Film 83%
• Creep 50%
• Polystyrene 33%
• Thin Films 16%
• Indentation 16%
• Lithography 16%
• Strain Rate 16%
• Polymer Films 16%
• Glassy Polymer 16%
• Mechanical Deformation 16%