通过共价键合、非共价连接、交联和自组装实现碳基纳米平台的多功能表面化学反应

A. Bracamonte
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摘要

这篇微型综述讨论了过去几年中用于改性碳同素异形体的最著名的化学和合成方法,并关注纳米技术。从这个角度出发,考虑了光电子应用化学和生物应用的最新趋势,主要侧重于石墨烯及其衍生物。因此,本微型综述旨在关注添加具有不同反应活性的官能团的方法、聚合物化学和纳米级控制。这些方法为进一步发展提供了启示。通过这种方式,展示并讨论了使用强酸介质将简单碳键转化为羧酸和醛类有机官能团的传统方法。因此,可以开发在各种溶剂中进行化学修饰的方法。值得注意的是,许多有机化学反应,如双分子亲核置换(SN2)、点击化学和光化学反应,对设计碳基材料改性和自下而上的方法有重要启示。此外,在石墨烯材料缺陷中加入原子实体可产生有趣的光谱和量子特性。原子的变化为这种均匀结构增添了瑕疵,从而改变了光学特性。此外,本综述还着重讨论了如何将聚合物薄膜(如硼基和硅基单体)融入形成聚合物改性碳基玻片。这样,有机硼烷和有机硅就可以进行化学功能化,因为在纳米表面更容易进行化学改性。此外,重点在于利用石墨烯及其衍生物的高电子密度与离子和极化分子进行非共价键合。因此,本手稿旨在总结迄今为止报道的主要反应类型和合成途径。因此,我们特别关注化学成分、二维和三维化学结构,以及它们与非共价相互作用相关的特性。因此,基于碳同素异形体的特性和反应性,本综述旨在展开分析和讨论,以考虑新型碳基材料、混合纳米复合材料和超材料的设计。
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Versatile Surface Chemistry of Carbon-Based Nanoplatforms by Covalent Bonding, Non-Covalent Linking, Crosslinking, and Self-Assembling
This mini-review discussed the best-known chemical and synthetic methodologies used in the last years to modify carbon allotropes, with an interest in nanotechnology. In this perspective, chemistry with optoelectronics applications and recent trends within bio-applications focusing mainly on graphene and its derivatives were considered. So, the mini-review intended to focus on methodologies to add functional groups with varied reactivities, polymer chemistry, and nanoscale control. These methodologies provide insight for further developments. In this manner, traditional methods using strong acid media to convert simple carbon bonds into carboxylic acid and aldehydes organic functional groups were shown and discussed. Hence, chemical modifications in a variety of solvents could be developed. Notably, many organic chemical reactions, such as bimolecular nucleophilic substitution (SN2), click chemistry, and photochemical reactions, showed essential insights in designing the carbon-based material modifications and the bottom-up method. Moreover, incorporating atomic entities within graphene material defects led to interesting spectroscopic and quantum properties. The atomic change added blemishes to this homogeneous structure, which was tuned to modify optical properties. In addition, the review was also oriented towards the discussion on incorporating polymeric films, such as boron- and silicon-based monomers, to form polymeric-modified carbon-based slides. In this way, organoboranes and organosilanes permitted chemical functionalization because their chemical modification was more accessible on nanosurfaces. Moreover, emphasis was placed on exploiting non-covalent bonding with ions and polarized molecules with the highly electronic densities of graphene and its derivatives. In this manner, the manuscript intends to summarize the main types of reactions and synthetic pathways reported until today. Therefore, particular focus was given to chemical composition, 2D and 3D chemical structures, and their properties related to non-covalent interactions. Thus, based on the properties and reactivity of carbon allotropes, the review was intended to open the analysis and discussion, considering the design of new carbon-based materials, hybrid nanocomposites, and metamaterials.
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