The Inhibition of Bio-film Formation by Graphene-Modified Stainless Steel and Titanium Alloy for the Treatment of Periprosthetic Infection: A Comparative Study

Arindam Bit, A. Bissoyi, S. K. Sinha, P. Patra, S. Saha
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引用次数: 4

Abstract

Colonization of bacteria such as Staphylococus or microbial growth forming layer of bio-film on the surface of implants inhibits osteo-integration on the surface of implants, and simultaneously resists the host defence mechanism on these bacteria. It leads to prognosis of surgical intervention. Titanium based implant (Ti6Al4V) provides the surface for enhanced osteo-integration, and it is biocompatible. But adhesion of bio-film on the surface of Ti-based implant never had been restricted. However, in case of low-cost metallic implant like SS 316, corrosion is another critical phenomenon. Graphene based composite multi-layer coating is therefore introduced on both Ti and SS 316 based implant using electrophoretic deposition process. Multi-layer thickness of graphene is ensured by Raman Spectroscopy. Coated implants made up of both types of metal are tested in simulated body fluid (SBF) for invitro study, and at invivo condition. Integration of graphene in micro-environment with enhancement of osteo-integration, and inhibition of bio-film adhesion and corrosion phenomena was characterised by Adhesion assay, Biofilm assay. Tests reveal enhanced osteogenic differentiation. Simultaneously, it shows restrict bio-film formation, corrosion activity, preventing bacterial adhesion and biofilm formation on both metallic implants.
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石墨烯改性不锈钢与钛合金治疗假体周围感染抑制生物膜形成的比较研究
葡萄球菌等细菌的定植或微生物生长在种植体表面形成生物膜层,抑制种植体表面的骨整合,同时抵抗宿主对这些细菌的防御机制。影响手术干预的预后。钛基种植体(Ti6Al4V)提供了增强骨整合的表面,并且具有生物相容性。但生物膜在钛基种植体表面的粘附从未受到限制。然而,在低成本的金属植入物如SS 316的情况下,腐蚀是另一个关键现象。因此,采用电泳沉积工艺在Ti和SS 316基植入物上引入了石墨烯基复合多层涂层。利用拉曼光谱技术保证了石墨烯的多层厚度。由两种类型的金属组成的涂层植入物在模拟体液(SBF)中进行体外研究和在体内条件下进行测试。通过粘附实验、生物膜实验表征了石墨烯在微环境中的整合,增强了骨整合,抑制了生物膜的粘附和腐蚀现象。试验显示成骨分化增强。同时,它还显示出限制生物膜的形成,腐蚀活性,防止细菌附着和生物膜的形成。
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