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电化学分析概述:在基于电化学的生物传感平台中利用微纳尺寸的材料。

Electroanalytical overview: utilising micro- and nano-dimensional sized materials in electrochemical-based biosensing platforms.

机构信息

Faculty of Science and Engineering, Manchester Metropolitan University, Chester Street, Manchester, M1 5GD, UK.

出版信息

Mikrochim Acta. 2021 Jul 22;188(8):268. doi: 10.1007/s00604-021-04913-y.

Abstract

Research into electrochemical biosensors represents a significant portion of the large interdisciplinary field of biosensing. The drive to develop reliable, sensitive, and selective biosensing platforms for key environmental and medical biomarkers is ever expanding due to the current climate. This push for the detection of vital biomarkers at lower concentrations, with increased reliability, has necessitated the utilisation of micro- and nano-dimensional materials. There is a wide variety of nanomaterials available for exploration, all having unique sets of properties that help to enhance the performance of biosensors. In recent years, a large portion of research has focussed on combining these different materials to utilise the different properties in one sensor platform. This research has allowed biosensors to reach new levels of sensitivity, but we note that there is room for improvement in the reporting of this field. Numerous examples are published that report improvements in the biosensor performance through the mixing of multiple materials, but there is little discussion presented on why each nanomaterial is chosen and whether they synergise well together to warrant the inherent increase in production time and cost. Research into micro-nano materials is vital for the continued development of improved biosensing platforms, and further exploration into understanding their individual and synergistic properties will continue to push the area forward. It will continue to provide solutions for the global sensing requirements through the development of novel materials with beneficial properties, improved incorporation strategies for the materials, the combination of synergetic materials, and the reduction in cost of production of these nanomaterials.

摘要

电化学生物传感器的研究是生物传感这一大型跨学科领域的重要组成部分。由于当前的形势,人们迫切需要开发可靠、敏感和选择性的生物传感平台,以用于关键的环境和医学生物标志物的检测。这种对在更低浓度下检测重要生物标志物的需求,以及对更高可靠性的需求,促使人们必须利用微纳尺寸的材料。有各种各样的纳米材料可供探索,它们都具有独特的性质,可以帮助提高生物传感器的性能。近年来,大量的研究集中在结合这些不同的材料,以在一个传感器平台中利用不同的性质。这项研究使得生物传感器达到了新的灵敏度水平,但我们注意到,在这个领域的报告中还有改进的空间。有很多例子报告了通过混合多种材料来提高生物传感器的性能,但很少有讨论涉及为什么选择每种纳米材料,以及它们是否协同良好,从而证明增加固有生产时间和成本是合理的。对微纳材料的研究对于改进生物传感平台的持续发展至关重要,进一步探索理解它们的单独和协同性质将继续推动该领域的发展。通过开发具有有益性质的新型材料、改进材料的整合策略、结合协同材料以及降低这些纳米材料的生产成本,它将继续为全球传感需求提供解决方案。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/5463/8298255/dfffb49aab9f/604_2021_4913_Fig1_HTML.jpg

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