PubMed · 1990 · 31 citations · 5 references
EngineeringBioengineeringBiomedical EngineeringBiomaterialsPolymer MaterialsTissue EngineeringBiomaterials For Tissue EngineeringConnective TissueFibrosisFibrous ProteinsPolymeric BiomaterialsTissue Engineering ScaffoldsConnective Tissue RegenerationIn Vitro RegenerationIn-vitro CharacterizationPolypropylenePorous Polymer ScaffoldsTensile StrengthType I Collagen BiomaterialsUltimate Tensile Strength
We evaluated a polybutylene/polypropylene blend in a blown microfiber configuration in vitro for potential use as the peripheral area of a keratoprosthetic device. Material properties such as ultimate tensile strength and ultimate elongation were measured. Stromal fibroblasts were seeded onto the material in vitro, and cell proliferation between uncoated and Type I collagen coated discs did not differ significantly. Fibroblasts could be seen migrating along the fibers and also traversing the fibers. The synthesis of connective proteins was examined. Laminin, fibronectin, and Type I collagen were detected by day 8. The experiments demonstrate that stromal fibroblasts can adhere onto the fibers, proliferate, and synthesize connective tissue proteins. Experiments are now being conducted to further evaluate the material in vivo.
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Hemidesmosome formation in vitro.
Ilene K. Gipson, S M Grill, S J Spurr et al. · The Journal of Cell Biology · 1983 · 152 citations · Full text
Epithelial downgrowth: a 30-year clinicopathological review.
Mark J. Weiner, Joseph Trentacoste, D M Pon et al. · British Journal of Ophthalmology · 1989 · 134 citations · Full text
Medicine, Ophthalmology, Surgery +13
Keratoprosthesis: a long-term review.
J. J. Barnham, M. J. Roper-Hall · British Journal of Ophthalmology · 1983 · 42 citations · Full text
Medicine, Ophthalmology, Surgery +10
Gullapalli N. Rao, Herbert L. Blatt, James V. Aquavella · American Journal of Ophthalmology · 1979 · 36 citations