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Graphene and functionalized graphene: Extraordinary prospects for nanobiocomposite materials

机译:石墨烯和功能化石墨烯:纳米生物复合材料的非凡前景

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摘要

Graphene research, already prized, is nonetheless challenged to provide material advantages that bring about unique and novel applications rather than simply an improved substitute to existing materials. Arguably driving significant progress are new approaches to its manufacture including combination with other atoms and nanobiocomposite materials that introduce new functional properties. Functionalized graphene can interface with biomolecules to provide new health sector benefits in the form of highly sensitive biosensors that may offer continuous label-free measurement of key bioactive cell molecules, innovative nanoparticles for tissue targeted drug delivery and scaffolds for tissue engineering with previously unachievable qualities favouring tissue integration and biocompatibility. We here describe graphene functionalization methods and provide recent examples of how graphene can be used to achieve biological interactions with innovative outcomes. Above all, these laboratory focused advances each contribute to an incrementally improved understanding of how different forms of graphene and its derivatives can best be tailored to meet biological demands. Much has yet to be discovered with regard to safety profiles and improved manufacture yet considering how carefully derived rational insights might be combined with computational biology to accelerate complex performance models, prospects that graphene-based biomaterials can achieve extraordinary real-world benefits are optimistically poised. (C) 2017 Elsevier Ltd. All rights reserved.
机译:然而,石墨烯的研究已经获得了宝贵的奖赏,它面临的挑战是提供带来独特新颖应用的材料优势,而不是简单地替代现有材料。可以说,推动其重大进展的是其制造的新方法,包括与引入新功能特性的其他原子和纳米生物复合材料的组合。功能化的石墨烯可以与生物分子相互作用,以高度灵敏的生物传感器的形式为健康领域带来新的好处,可以提供对关键生物活性细胞分子的连续无标签测量,用于组织靶向药物输送的创新纳米颗粒以及用于组织工程的支架,具有以前无法实现的质量组织整合和生物相容性。我们在这里描述石墨烯功能化方法,并提供有关如何使用石墨烯实现具有创新成果的生物相互作用的最新实例。最重要的是,这些以实验室为重点的进展各自有助于人们逐步提高对如何最好地定制石墨烯及其衍生物的形式的了解,以满足生物学的需求。关于安全性和改进制造方面尚未发现很多,但考虑到如何将精心得出的合理见解与计算生物学相结合以加速复杂的性能模型,基于石墨烯的生物材料可以实现非凡的现实利益的前景被乐观地摆在了面前。 (C)2017 Elsevier Ltd.保留所有权利。

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