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Rheology of reconstituted type I collagen gel in confined compression
David M. Knapp
,
Victor H. Barocas
, Alice G. Moon
, Kyeongah Yoo
, Linda R. Petzold
,
Robert T. Tranquillo
Biomedical Engineering
Research output
:
Contribution to journal
›
Article
›
peer-review
178
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Keyphrases
Rheology
100%
Collagen Gel
100%
Type I Collagen Gel
100%
Confined Compression
100%
Collagen Network
66%
Biphasic Theory
66%
Tissue Equivalent
33%
Viscosity
33%
Stress Response
33%
Mechanical Interaction
33%
Optimization Algorithm
33%
Aqueous Solution
33%
Cell Matrix
33%
Parameter Estimation
33%
High Resistance
33%
Creep
33%
Inviscid
33%
Collagen Fibrils
33%
Drag Coefficient
33%
Unconfined Compression Test
33%
High Modulus
33%
Relaxation Spectrum
33%
Microstructural Properties
33%
Differential-algebraic Equations
33%
Constant Strain Rate
33%
Gel Mechanics
33%
Creep Testing
33%
Syneresis
33%
Maxwell Fluid
33%
Sparse Networks
33%
Aggregate Modulus
33%
Interphase Drag
33%
Finite Element Method Model
33%
Fluid Behavior
33%
Equation Solver
33%
Interstitial Solution
33%
Constant Rate of Strain Test
33%
Bulk Deformation
33%
Linear Viscoelastic Limit
33%
Dynamic Testing
33%
Strain Rate Data
33%
Engineering
Rheology
100%
Collagen Network
100%
Strain Rate
100%
Experimental Result
50%
Algebraic Equation
50%
Rate Data
50%
Optical Spectrum
50%
Mechanical Interaction
50%
Parameter Estimate
50%
Rate Test
50%
Interstitial Solution
50%
Fluid Viscosity
50%
Drag Coefficient
50%
Finite Element Analysis
50%
Aqueous Solution
50%
Compression Tests
50%
Material Science
Rheology
100%
Strain Rate
100%
Confined Compression
100%
Finite Element Methods
50%