Centro de Tecnología Biomédica, Universidad Politécnica de Madrid, Pozuelo de Alarcón, 28223 Madrid, Spain.
Departamento de Ciencia de Materiales, ETSI Caminos, Canales y Puertos, Universidad Politécnica de Madrid, 28040 Madrid, Spain.
Molecules. 2022 Jun 28;27(13):4146. doi: 10.3390/molecules27134146.
High-performance regenerated silkworm () silk fibers can be produced efficiently through the straining flow spinning (SFS) technique. In addition to an enhanced biocompatibility that results from the removal of contaminants during the processing of the material, regenerated silk fibers may be functionalized conveniently by using a range of different strategies. In this work, the possibility of implementing various functionalization techniques is explored, including the production of fluorescent fibers that may be tracked when implanted, the combination of the fibers with enzymes to yield fibers with catalytic properties, and the functionalization of the fibers with cell-adhesion motifs to modulate the adherence of different cell lineages to the material. When considered globally, all these techniques are a strong indication not only of the high versatility offered by the functionalization of regenerated fibers in terms of the different chemistries that can be employed, but also on the wide range of applications that can be covered with these functionalized fibers.
高性能再生蚕丝丝纤维可以通过牵伸流纺丝(SFS)技术高效生产。除了在材料处理过程中去除污染物导致的增强生物相容性外,还可以通过使用一系列不同的策略方便地对再生丝纤维进行功能化。在这项工作中,探索了实现各种功能化技术的可能性,包括生产荧光纤维,当植入时可以跟踪这些纤维,将纤维与酶结合以产生具有催化性能的纤维,以及用细胞黏附基序对纤维进行功能化以调节不同细胞系对材料的黏附。从整体上看,所有这些技术不仅强烈表明了再生纤维功能化在可采用的不同化学物质方面提供的高度多功能性,而且还表明了这些功能化纤维可以涵盖的广泛应用范围。