Principles and Applications of Nanoplasmonics in Biological and Chemical Sensing: A Review

P. A. Sohi, M. Kahrizi
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引用次数: 3

Abstract

Biosensing requires a highly sensitive real-time detection of the biomolecules. These properties are granted by nanoplasmonic sensing techniques. SPR-based optical sensors have evolved as a sensitive and versatile biosensing tool. A growing number of SPR-based sensing applications in the solution of clinical problems are reported in the recent years. This refers to the point that these sensors provide label-free detection of the living cells and non-destructive analysis techniques. In this study, we will review the mechanism of the detection in SPR biosensing, followed by the methods used to develop sensors to detect gases and the chemical, biological, and molecular interaction. The device sensitivity improvement based on plasmonic effects is also addressed in this study, and accordingly, the size and material dependence of the resonance frequency are discussed. The reviewed articles are categorized into three groups, depending on the SPR excitation configuration. In the first group of the sensors, the sensitivity of LSPR-based sensors in prism coupler configurations is reviewed. The second group, SPR excitation by optical fiber, slightly improved the sensitivity of the detections. The unique capability of the third group, photonic crystal fiber SPR sensors, in providing greatly improved sensitivity, generated a vast field of researches and applications in biosensing devices.
纳米等离子体在生物和化学传感中的原理和应用综述
生物传感需要对生物分子进行高灵敏度的实时检测。这些特性是通过纳米等离子体传感技术实现的。基于spr的光学传感器已经发展成为一种灵敏、通用的生物传感工具。近年来,越来越多的基于spr的传感应用于解决临床问题。这是指这些传感器提供无标签检测的活细胞和非破坏性的分析技术。在本研究中,我们将回顾SPR生物传感中的检测机制,然后是用于开发检测气体及其化学,生物和分子相互作用的传感器的方法。本研究还讨论了基于等离子体效应的器件灵敏度提高,并相应地讨论了共振频率的大小和材料依赖关系。根据SPR激励结构的不同,本文分为三组。在第一组传感器中,综述了基于lsr的传感器在棱镜耦合器结构下的灵敏度。第二组采用光纤激发SPR,略微提高了探测的灵敏度。第三类光子晶体光纤SPR传感器的独特性能大大提高了灵敏度,在生物传感器件中产生了广阔的研究和应用领域。
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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