Analyzing the interactions and miscibility of silk fibroin/mucin blends

Mucin, a glycoprotein with viscoelastic properties, and silk fibroin, a protein excreted from silkworms with properties of thermal and mechanical resistance, have been probed as building blocks in the design of biomaterials. Aiming to evaluate the interaction and miscibility between mucin and fibroi...

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Veröffentlicht in:Journal of applied polymer science 2024-05, Vol.141 (19), p.n/a
Hauptverfasser: Lopes, Laise Maia, Ottaiano, Gabriel Yoshiaki, Souza Guedes, Luciana, Moraes, Mariana Agostini, Beppu, Marisa Masumi
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container_issue 19
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container_title Journal of applied polymer science
container_volume 141
creator Lopes, Laise Maia
Ottaiano, Gabriel Yoshiaki
Souza Guedes, Luciana
Moraes, Mariana Agostini
Beppu, Marisa Masumi
description Mucin, a glycoprotein with viscoelastic properties, and silk fibroin, a protein excreted from silkworms with properties of thermal and mechanical resistance, have been probed as building blocks in the design of biomaterials. Aiming to evaluate the interaction and miscibility between mucin and fibroin, we synthesized silk fibroin and mucin (SF/MU) blends for biomedical applications. The morphological analysis of the SF/MU blends showed the presence of two phases, suggesting a partial miscibility between the polymers. The degradation temperature of the SF/MU blends increased with an increase in the silk fibroin content, indicating that silk fibroin contributed to the thermal stability of the blends. The glass transition temperature of the SF/MU blends lay between the values of the pure polymers. The Fourier‐transform infrared spectroscopy results pointed out that the interaction between fibroin and mucin occurred between the amine group of silk fibroin and mucin carboxyl and hydroxyl groups. The outcomes of this work provided essential information on the miscibility of the SF/MU blends. These findings will be critical for further studies with fibroin and mucin‐based biomaterials, especially in mucoadhesive systems and wound healing applications. Our findings revealed that the intricate interaction between these biopolymers occurred through the amine groups of silk fibroin and mucin carboxyl and hydroxyl groups. Notably, as the silk fibroin content increased, so did the thermal stability of the blends.
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source Wiley Online Library Journals Frontfile Complete
subjects biomaterials
biomedical applications
Biomedical materials
biopolymers and renewable polymers
Fourier transforms
Glass transition temperature
Glycoproteins
Hydroxyl groups
Miscibility
Polymer blends
Polymers
Silk fibroin
Silkworms
Thermal resistance
Thermal stability
Wound healing
title Analyzing the interactions and miscibility of silk fibroin/mucin blends
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