Innovative electrospun PCL/fibroin/l-dopa scaffolds scaffolds supporting bone tissue regeneration

IF 3.9 3区 医学 Q2 ENGINEERING, BIOMEDICAL
E. Marin, Orion Yoshikawa, F. Boschetto, T. Honma, T. Adachi, Wenliang Zhu, Huaizhong Xu, N. Kanamura, Toshiro Yamamoto, G. Pezzotti
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引用次数: 1

Abstract

Poly-caprolactone is one of the most promising biocompatible polymers on the market, in particular for temporary devices that are not subjected to high physiological loads. Even if completely resorbable in various biological environments, poly-caprolactione does not play any specific biological role in supporting tissue regeneration and for this reason has a limited range of possible applications. In this preliminary work, for the first time l-dopa and fibroin have been combined with electrospun poly-caprolactone fibers in order to induce bioactive effects and, in particular, stimulate the proliferation, adhesion and osteoconduction of the polymeric fibers. Results showed that addition of low-molecular weight fibroin reduces the mechanical strength of the fibers while promoting the formation of mineralized deposits, when tested in vitro with KUSA-A1 mesenchymal cells. l-dopa, on the other hand, improved the mechanical properties and stimulated the formation of agglomerates of mineralized deposits containing calcium and phosphorous with high specific volume. The combination of the two substances resulted in good mechanical properties and higher amounts of mineralized deposits formed in vitro.
新型电纺丝PCL/丝素/左旋多巴支架:支持骨组织再生的支架
聚己内酯是市场上最有前途的生物相容性聚合物之一,特别是用于不受高生理负荷的临时装置。即使在各种生物环境中完全可吸收,聚己内旋酮在支持组织再生方面也没有任何特定的生物学作用,因此可能的应用范围有限。本初步研究首次将左旋多巴和丝素与电纺丝聚己内酯纤维结合,以诱导生物活性,特别是刺激聚合纤维的增殖、粘附和骨传导。结果表明,低分子量纤维蛋白的加入降低了纤维的机械强度,同时促进了矿化沉积物的形成,并与kasa - a1间充质细胞进行了体外实验。另一方面,左旋多巴改善了机械性能,刺激了高比体积含钙磷矿化沉积团块的形成。这两种物质的结合导致了良好的机械性能和体外形成的较高数量的矿化沉积物。
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来源期刊
Biomedical materials
Biomedical materials 工程技术-材料科学:生物材料
CiteScore
6.70
自引率
7.50%
发文量
294
审稿时长
3 months
期刊介绍: The goal of the journal is to publish original research findings and critical reviews that contribute to our knowledge about the composition, properties, and performance of materials for all applications relevant to human healthcare. Typical areas of interest include (but are not limited to): -Synthesis/characterization of biomedical materials- Nature-inspired synthesis/biomineralization of biomedical materials- In vitro/in vivo performance of biomedical materials- Biofabrication technologies/applications: 3D bioprinting, bioink development, bioassembly & biopatterning- Microfluidic systems (including disease models): fabrication, testing & translational applications- Tissue engineering/regenerative medicine- Interaction of molecules/cells with materials- Effects of biomaterials on stem cell behaviour- Growth factors/genes/cells incorporated into biomedical materials- Biophysical cues/biocompatibility pathways in biomedical materials performance- Clinical applications of biomedical materials for cell therapies in disease (cancer etc)- Nanomedicine, nanotoxicology and nanopathology- Pharmacokinetic considerations in drug delivery systems- Risks of contrast media in imaging systems- Biosafety aspects of gene delivery agents- Preclinical and clinical performance of implantable biomedical materials- Translational and regulatory matters
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