Characterizing the non-linear mechanical behavior of native and biomimetic engineered tissues in 1D with physically meaningful parameters

Keyphrases

• Biomimetic 100%
• Engineered Tissue 100%
• Nonlinear Mechanical Behavior 100%
• Native Tissue 66%
• Testing Data 66%
• Uniaxial Testing 66%
• Linear Elasticity Theory 66%
• Tissue-engineered Constructs 33%
• Tissue Engineering Applications 33%
• First-principles 33%
• Young's Modulus 33%
• Mechanical Behavior 33%
• Law 33%
• Collagen Scaffold 33%
• Stiffness 33%
• Physical Interpretation 33%
• Hernia Repair 33%
• Performance Comparison 33%
• Constitutive Model 33%
• Mechanical Performance 33%
• Scaffold for Tissue Engineering 33%
• Stress-strain 33%
• Uniaxial Mechanical Testing 33%
• Nonlinear Model 33%
• Material Behavior 33%
• Low Strain 33%
• Design Improvement 33%
• Comprehensive Characterization 33%
• Special Design 33%
• Tissue Stress 33%
• Competing Models 33%
• Fiber Model 33%
• Strain Limiting Behaviour 33%
• Unique Characterizations 33%
• Holzapfel-Gasser-Ogden Model 33%
• D-fiber 33%
• Design Targets 33%
• Biofidelity 33%
• Testing System 33%

Engineering

• Biomimetics 100%
• Native Tissue 66%
• Tissue Regeneration 66%
• Elasticity Theory 66%
• Linear Elasticity 66%
• Grafts 33%
• Young's Modulus 33%
• Constitutive Model 33%
• Mechanical Performance 33%
• Engineering Application 33%
• Stress-Strain Relations 33%
• Nonlinear Model 33%
• Collagen Scaffold 33%
• Material Behavior 33%
• Common Practice 33%
• Mechanical Testing 33%
• Engineered Construct 33%
• Ogden Model 33%
• D-Fiber 33%
• Rigidity 33%

Material Science

• Elasticity 100%
• Mechanical Testing 50%
• Young's Modulus 50%
• Scaffold for Tissue Engineering 50%
• Stress-Strain Relations 50%
• D-Fiber 50%