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Biofuncionalización de superficies a base de fibroína para su potencial uso en aplicaciones cardiovasculares
Biofunctionalization of silk fibroin-based surfaces for potential use in cardiovascular applications
DOI:
https://doi.org/10.15446/rev.colomb.biote.v25n2.103560Palabras clave:
Biofuncionalización, actividad antitrombogénica, superficie (es)Biofunctionalization, antithrombogenic activity, surface (en)
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En el presente trabajo, se biofuncionalizaron con heparina películas fabricadas a base de fibroína (SF) y polivinil alcohol (PVA) utilizando dos técnicas diferentes, la primera por acople de carbodiimida y la segunda por aprovechamiento de interacciones electrostáticas, buscando conseguir un comportamiento antitrombogénico en la superficie de las películas fabricas para su potencial uso como biomateriales para la fabricación de implantes cardiovasculares. Las muestras biofuncionalizadas fueron sometidas a una prueba de coagulación de sangre para verificar el éxito de dicha biofuncionalización. Los resultados mostraron que las muestras biofuncionalizadas por acople de carbodiimida, además de presentar una actividad antitrombogénica superior a las biofuncionalizadas por aprovechamiento de interacciones electrostáticas, presentaban valores de ángulos de contacto más cercanos a los de los materiales para la fabricación de implantes cardiovasculares, y que también, la biofuncionalización no afecta significativamente las propiedades mecánicas y superficiales de las películas fabricadas.
In the present work, fibroin, and polyvinyl alcohol (PVA) - based films were biofunctionalized using two different techniques, the first by carbodiimide coupling and second by exploiting electrostatic interactions, seeking to achieve antithrombogenic behavior on the surface of the manufactured films for their potential use as biomaterials for the manufacture of cardiovascular implants. The biofunctionalized samples were submitted to the blood clotting test to verify the success of said biofunctionalization. The results showed that the samples biofunctionalized by carbodiimide coupling, in addition to presenting a higher antithrombogenic activity than those biofunctionalized by taking advantage of electrostatic interactions, presented contact angles values closer to those of the materials for the manufacture of cardiovascular implants, and that also, the biofunctionalization does not significantly affect the mechanical and surface properties of the fabricated films.
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