Publication | Open Access
Design, Degradation Mechanism and Long‐Term Cytotoxicity of Poly(<scp>l</scp>‐lactide) and Poly(Lactide‐co‐ϵ‐Caprolactone) Terpolymer Film and Air‐Spun Nanofiber Scaffold
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Citations
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References
2015
Year
Tissue EngineeringEngineeringBiomimetic MaterialsPolymer NanotechnologyBiomaterials DesignBiofabricationSynthetic Nanofiber ScaffoldBiomedical EngineeringNatural PolymersTerpolymer FilmPolymersRegenerative MedicineChemical EngineeringDegradable Nanofiber ScaffoldPolymer TechnologyDegradation ProcessRegenerative BiomaterialsPolymer ProcessingPolymer ChemistryMaterials ScienceVascular Tissue EngineeringRegenerative EngineeringMedicineDegradation MechanismPolymer EngineeringFunctional Tissue EngineeringBiofunctional MaterialPolymer ScienceAir‐spun Nanofiber ScaffoldBiomaterialsBiocompatible Material
Degradable nanofiber scaffold is known to provide a suitable, versatile and temporary structure for tissue regeneration. However, synthetic nanofiber scaffold must be properly designed to display appropriate tissue response during the degradation process. In this context, this publication focuses on the design of a finely‐tuned poly(lactide‐co‐ϵ‐caprolactone) terpolymer (PLCL) that may be appropriate for vascular biomaterials applications and its comparison with well‐known semi‐crystalline poly( l ‐lactide) (PLLA). The degradation mechanism of polymer film and nanofiber scaffold and endothelial cells behavior cultured with degradation products is elucidated. The results highlights benefits of using PLCL terpolymer as vascular biomaterial compared to PLLA.
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