Generation of novel blue natural biomaterials from fish scales for use in cornea repair and engineering
Metadatos
Mostrar el registro completo del ítemAutor
Garzón Bello, Ingrid Johanna; Muñoz-Hurtado, Juan; Pereira Martínez, Juan; González Gallardo, Carmen; Ionescu, Ana María Andreea; Cardona Pérez, Juan De La Cruz; Tejada Casado, María de la Nativida; Pérez Gómez, María Del Mar; Chato Astrain, Jesús; Alaminos Mingorance, MiguelEditorial
Elsevier
Fecha
2025-10Referencia bibliográfica
Garzón I, Muñoz-Hurtado J, Pereira-Martínez J, González-Gallardo C, Ionescu AM, Cardona JC, Tejada-Casado M, Pérez MM, Chato-Astrain J, Alaminos M*. Generation of novel blue natural biomaterials from fish scales for use in cornea repair and engineering. Mater Des. 2025;258:114703. doi: 10.1016/j.matdes.2025.114703
Resumen
Fish scale biomaterials (FSB) were obtained from red scorpionfish (SSC), salmon (SSA), white sea bream (DS) and European carp (CC). Native FSB were preconditioned and cellularized with limbal epithelial cells, and evaluated ex vivo and in vivo. Results showed that preconditioned FSB showed high light transmittance and low reflectance, absorption and scattering coefficients, and proper biomechanical properties. Then, we found that FSB were biocompatible in vivo, and subcutaneous grafting in laboratory animals was not associated with a pathological local or systemic reaction, especially in CC-FSB. After recellularization, FSB supported cell attachment, proliferation and differentiation, with positive expression of limbal epithelial cell markers, and very good optical properties, with the lowest levels of scattering and absorption found in CC-FSB. Intracorneal implant of CC-FSB in laboratory rabbits demonstrated that this biomaterial was also biocompatible to the native cornea, and corneas grafted with CC-FSB had normal expression of corneal epithelium and stromal markers, such as cytokeratin 3, crystallin alpha-A, p63, collagen, proteoglycans and lumican, and devoid of any detectable signs of rejection, inflammation or neovascularization. These findings indicate that CC-FSB potentially meet the criteria for biomaterials used in corneal regeneration, making it a promising candidate for corneal tissue engineering applications.





