2013
DOI: 10.1007/s00289-013-1002-4
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Electrospinning of polyvinylalcohol–polycaprolactone composite scaffolds for tissue engineering applications

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Cited by 35 publications
(20 citation statements)
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“…Moreover, the aspect of the curves of dynamic viscosity–shear rate dependence is related to topographic reorganization of the films and association phenomena by hydrogen bonding. In this context, these results are in agreement with those of the literature, which reveal that, for biomedical applications, obtaining porous polymer structures is recommended . Thereby, these types of membranes (obtained from PSF/PVA/NMP and CMPSF/PVA/NMP solutions) with superior properties – specific molecular microarchitecture and controlled porosity – can be used to meet the requirements for specific applications.…”
Section: Resultssupporting
confidence: 88%
“…Moreover, the aspect of the curves of dynamic viscosity–shear rate dependence is related to topographic reorganization of the films and association phenomena by hydrogen bonding. In this context, these results are in agreement with those of the literature, which reveal that, for biomedical applications, obtaining porous polymer structures is recommended . Thereby, these types of membranes (obtained from PSF/PVA/NMP and CMPSF/PVA/NMP solutions) with superior properties – specific molecular microarchitecture and controlled porosity – can be used to meet the requirements for specific applications.…”
Section: Resultssupporting
confidence: 88%
“…Nonetheless, the mechanical properties are lower compared to other biopolymers such as PLA (PCL flexural modulus is around 0.48-0.58 GPa, while PLA flexural modulus is around 3.1-3.6 GPa). For this reason, the use of PCL as a tissue engineering scaffold, sometimes, need to study possible modifications by adding fillers or blends [14][15][16][17][18]. Few studies have tested PCL composites as internal fixation systems, such as Lowry et al [13] who prepared fixations of PCL reinforced with glass fiber for rabbit humerus.…”
Section: Introductionmentioning
confidence: 99%
“…Using this approach, electrospun fabrics are constructed as artificial prototype grafts to recreate native blood vessels, nerve and smooth muscles, bone and cartilage and endothelial or connective tissues. Literature shows extensively examples of the cited combinations such as blends of PLA with collagen , PCL with collagen , PLA with gelatin , PCL with gelatin , PLA with PHBV , PLA with poly(ethylene glycol) (PEG) , PLA with zein , PCL with zein , PCL with starch , PCL with PVA , and PCL with eggshell membrane protein . Similar studies in the biomedical field have shown that different cell lines were adhered, spread, and grew also on PLGA‐based alloy matrices.…”
Section: Electrospinning Of Polymer Blendsmentioning
confidence: 93%
“…However, other biodegradable polymers and polymer blends have been additionally proposed, as they also offer the advantage of being resorbable and more physically stable. This for example includes PLA , PCL , PLA and PCL blends , PCL and PVA blends , PLA and collagen blends , PCL and collagen blends , PCL and gelatin blends , PCL and chitosan blends , silk fibroin , PHB , PHBV , PVA , poly(ester amide) (PEA) , poly(butylene succinate) (PBS) , etc. The presence of nHA in these electrospun scaffolds successfully showed high osteogenic capabilities of a variety of cell types and supported the growth of clinically relevant bone tissues.…”
Section: Electrospun Nanobiocomposite Fibersmentioning
confidence: 99%