Keyphrases
Mechanical Properties
100%
Polylactic Acid
100%
Electrospun
100%
Polycaprolactone
100%
Bilayer Vascular Graft
100%
Poly(L-lactide-co-ε-caprolactone)
80%
Copolymer
60%
Tensile Strength
60%
Burst Strength
60%
Blending Ratio
60%
Fiber Orientation
40%
Graft Design
40%
Biocompatibility
20%
Electrospinning Technique
20%
Biological Properties
20%
High Tensile Strength
20%
Biodegradability
20%
SEM Analysis
20%
Fiber Diameter
20%
High Strength
20%
High Elongation
20%
Diameter Measurement
20%
Inner Layer
20%
Material Selection
20%
Physiological Condition
20%
Randomly Distributed
20%
Wall Thickness
20%
Design Selection
20%
Bilayer Scaffold
20%
Oriented Fibers
20%
Vascular Graft
20%
Small-diameter Vascular Grafts
20%
Burst Pressure
20%
Strength Test
20%
Compliance Level
20%
Radial Fiber
20%
Blend Fiber
20%
Fiber Alignment
20%
Elongation Value
20%
Polycaprolactone Scaffold
20%
Blended Approach
20%
Approach Orientation
20%
Blend Scaffolds
20%
Tubular Specimen
20%
Compliance Test
20%
Hemodynamic Conditions
20%
Random Fiber Distribution
20%
Engineering
Electrospun
100%
Ultimate Tensile Strength
100%
Grafts
100%
Caprolactone
100%
Monolayers
100%
Fiber Orientation
50%
Electrospinning Technique
25%
Fiber Diameter
25%
Outer Layer
25%
Burst Pressure
25%
Diameter Vascular Graft
25%
Fiber Alignment
25%
Design Selection
25%
Acceptance Tests
25%
Biological Property
25%
Material Science
Polylactide
100%
Monolayers
100%
Ultimate Tensile Strength
80%
Copolymer
60%
Fiber Reinforced Material
40%
Scanning Electron Microscopy
20%
Biocompatibility
20%
Electrospinning
20%