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Bifunctional nanomaterials for simultaneously improving cell adhesion and affecting bacterial biofilm formation on silicon-based surfaces

机译:双官能纳米材料同时改善细胞粘附,影响硅基表面的细菌生物膜形成

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摘要

In the biomedical field, silicon-based materials are widely used as implants, biomedical devices, and drug delivery systems. Although these materials show promise for implant technologies and clinical applications, many of them fail to simultaneously possess key properties, such as mechanical stability, biostability, stretchability, cell adhesiveness, biofilm inhibition, and drug delivery ability. Therefore, there is considerable need for the development and improvement of new biomaterials with improved properties. In this context, we describe the synthesis of a new hybrid nanocomposite material that is prepared by incorporating bifunctional nanomaterials onto glass and polydimethylsiloxane surfaces. The results show that our hybrid nanocomposite material is elastic, stretchable, injectable, biostable, has pH-controlled drug delivery ability, and display improved cell adhesion and proliferation and, at the same time, impacted bacterial biofilm formation on the respective surfaces.
机译:在生物医学领域,基于硅基材料被广泛用作植入物,生物医学装置和药物递送系统。 虽然这些材料显示了植入技术和临床应用的承诺,但是它们中的许多未能同时具有关键特性,例如机械稳定性,生物稳定性,拉伸性,细胞粘合性,生物膜抑制和药物递送能力。 因此,具有改善性质的新生物材料的开发和改进有很大的需求。 在这种情况下,我们描述了一种通过将双官能纳米材料掺入玻璃和聚二甲基硅氧烷表面来制备的新型杂化纳米复合材料的合成。 结果表明,我们的杂化纳米复合材料是弹性,可拉伸,可注射的,可生物稳定的,具有pH控制的药物递送能力,并显示出改善的细胞粘附和增殖,同时,同时受到影响的细菌生物膜在相应的表面上形成。

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