Fullerene Based Sensor and Biosensor Technologies

H. D. E. Uygun, Z. Uygun
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引用次数: 3

Abstract

Sensor and biosensor technologies have shown rapid progress in recent years. These technologies use nanomaterials that have an important place in immobilization materials for recognition analyte molecules. Although fullerenes among these materials have attracted much attention in recent years, their number of studies is less than other carbon-based nanomaterials. Thanks to its completely closed structure and at least 30 double bonds, it can be modified from 30 points, which provides a great advantage. At these points, thanks to the ability to modify amine, thiol, carboxyl or metallic groups, modification residues can be created for all kinds of immobilization. According to the zero-dimensional nanomaterial class, fullerenes provide an extremely large surface area. Therefore, it provides more biological or non-biological recognition receptors immobilized on this surface area. Moreover, increasing the surface area with more recognition agent also increases the sensitivity. This is the most important parameter of sensor technologies, which is provided by fullerenes. In this book chapter, the development of fullerene-modified sensor and biosensor technologies are explained with examples, and fullerene modifications are given in figures as fullerene derivatives. Contribution was made in the method development stage by giving comparison of fullerene type sensor and biosensor systems.
基于富勒烯的传感器和生物传感器技术
近年来,传感器和生物传感器技术发展迅速。这些技术使用的纳米材料是识别分析分子的重要固定材料。虽然富勒烯是近年来备受关注的材料之一,但与其他碳基纳米材料相比,其研究数量较少。由于富勒烯具有完全封闭的结构和至少 30 个双键,因此可以从 30 个点对其进行改性,这为其提供了极大的优势。在这些点上,由于可以对胺基、硫醇基、羧基或金属基进行修饰,因此可以创建修饰残基,用于各种固定。在零维纳米材料类别中,富勒烯具有极大的表面积。因此,它能提供更多固定在该表面区域的生物或非生物识别受体。此外,增加表面积,增加识别剂,还能提高灵敏度。这是传感器技术中最重要的参数,而富勒烯可以提供这些参数。在本书的这一章中,以实例解释了富勒烯改性传感器和生物传感器技术的发展,并以富勒烯衍生物的形式给出了富勒烯改性的图示。通过对富勒烯型传感器和生物传感器系统进行比较,为方法开发阶段做出了贡献。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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