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Experimental analysis of viscoelastic behavior in nanoindentation
A. Strojny
, W. W. Gerberich
Chemical Engineering and Materials Science
Research output
:
Contribution to journal
›
Conference article
›
peer-review
22
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Scopus citations
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Keyphrases
Nanoindentation
100%
Viscoelastic Behavior
100%
Analytical Model
100%
Flat Tip
100%
Spherical Tip
100%
Indenter
50%
Three-element
50%
Polymeric Materials
50%
Elastic Modulus
50%
Polystyrene
50%
Bulk Polymers
50%
Creep
50%
Constant Depth
50%
Shear Modulus
50%
Indentation
50%
Nonlinear Least Squares
50%
Rheological Measurements
50%
Substrate Effect
50%
Load-displacement Curve
50%
Dashpot
50%
Relaxation Mode
50%
Loading Mode
50%
Mechanical Measurement
50%
Constant Power Load
50%
Nanoindentation Test
50%
Hydrostatic Pressure Dependence
50%
Styrene-acrylate
50%
Kelvin-Voigt Model
50%
Conventional Analysis
50%
Block Copolymer Coating
50%
Compressible Material
50%
Thin Film Analysis
50%
Three-parameter
50%
Incompressible Material
50%
Polydimethylsiloxane Coating
50%
Power-law Fitting
50%
Engineering
Polymers
100%
Analytical Model
100%
Polymer Bulk
50%
Load Displacement Curve
50%
Polydimethylsiloxane
50%
Incompressible Material
50%
Relaxation Mode
50%
Kelvin-Voigt Model
50%
Thin Films
50%
Shear Modulus
50%
Fluid Statics
50%
Least Squares Method
50%
Material Science
Nanoindentation
100%
Polymer
100%
Viscoelastic Behavior
100%
Elastic Moduli
66%
Block Copolymer
33%
Polystyrene
33%
Thin Films
33%
Fluid Statics
33%
Polydimethylsiloxane
33%