Structural design and mechanical analysis of small-caliber bilayer vascular prostheses

Keyphrases

• Mechanical Analysis 100%
• Structural Design 100%
• Inner Layer 100%
• Design Analysis 100%
• Small Caliber 100%
• Vascular Prosthesis 100%
• Poly(L-lactide-co-ε-caprolactone) 100%
• Tensile Strength 66%
• Polycaprolactone 66%
• Mechanical Performance 33%
• Structural Properties 33%
• Electrospinning Technique 33%
• Polylactic Acid 33%
• Value Change 33%
• Radial Direction 33%
• Polymer Type 33%
• Longitudinal Direction 33%
• Randomly Distributed 33%
• Wall Thickness 33%
• Oriented Fibers 33%
• Tubular Scaffold 33%
• Polymer Composition 33%
• Property Type 33%
• High Compliance 33%
• Polymer Wall 33%
• Structural Polymer 33%
• Sequential Electrospinning 33%
• Bilayer Vascular Graft 33%

Engineering

• Structural Design 100%
• Caprolactone 100%
• Prosthesis 100%
• Ultimate Tensile Strength 66%
• Grafts 66%
• Outer Layer 66%
• Radial Direction 33%
• Mechanical Performance 33%
• Electrospinning Process 33%
• Longitudinal Direction 33%
• Individual Layer 33%
• Structural Property 33%
• Layer Display 33%
• Manufactured Fiber 33%
• Phase Composition 33%

Material Science

• Mechanical Testing 100%
• Ultimate Tensile Strength 100%
• Electrospinning 50%
• Structural Property 50%
• Polylactide 50%
• Phase Composition 50%