Predicting polymer flow during high-temperature atomic force microscope nanoindentation

Keyphrases

• High Temperature 100%
• Atomic Force Microscope 100%
• Nanoindentation 100%
• Polymer Flow 100%
• Polymer Microtips 100%
• Interface Temperature 50%
• Polymer Deformation 50%
• Nanometer Scale 25%
• Order of Magnitude 25%
• Shear Thinning 25%
• Temperature Effect 25%
• Elevated Temperature 25%
• Film Thickness 25%
• High Molecular Weight Polymer 25%
• Indentation 25%
• Bulk Material 25%
• Glass Transition Temperature 25%
• Indenter 25%
• Nanoprobe 25%
• Forced Displacement 25%
• Displacement Rate 25%
• Polymer Film 25%
• Atomic Force Microscope Tips 25%
• Isothermal Condition 25%
• Material Behavior 25%
• Continuum Simulation 25%
• Polymer Properties 25%
• Simulation Model 25%
• Isothermal Model 25%
• Mechanical Deformation 25%
• Polymer Viscosity 25%
• Non-isothermal Conditions 25%
• Polymer Coil 25%
• Temperature Conditions 25%
• Tip Radius 25%
• Polymer Glass Transition 25%
• Indentation Process 25%
• Sub-continuum 25%
• Viscosity Gradient 25%
• Non-isothermal Simulation 25%
• Coil Radius 25%
• Nanoembossing 25%
• Modified Boundary Condition 25%

Engineering

• Atomic Force Microscope 100%
• Indentation 66%
• Fluid Viscosity 66%
• Interface Temperature 66%
• Nanometre 33%
• Shear Thinning 33%
• Temperature Condition 33%
• Isothermal 33%
• Boundary Condition 33%
• Bulk Material 33%
• Elevated Temperature 33%
• Force Displacement 33%
• Displacement Rate 33%
• Isothermal Condition 33%
• Material Behavior 33%
• Mechanical Deformation 33%
• Polymer Molecular Weight 33%
• Nonisothermal Condition 33%

Material Science

• Indentation 100%
• Nanoindentation 100%
• Film Thickness 50%
• Glass Transition Temperature 50%
• Polymer Films 50%
• Mechanical Deformation 50%
• Polymer Property 50%