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Surface enhanced Raman scattering (SERS) based biomicrofluidics systems for trace protein analysis

机译:基于表面增强拉曼散射(SERS)的生物微流体系统用于痕量蛋白质分析

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摘要

In recent years, Surface Enhanced Raman Scattering (SERS) has been widely applied to many different areas, including chemical analysis, biomolecule detection, bioagent diagnostics, DNA sequence, and environmental monitor, due to its capabilities of unlabeled fingerprint identification, high sensitivity, and rapid detection. In biomicrofluidic systems, it is also very powerful to integrate SERS based devices with specified micro-fluid flow fields to further focusing/enhancing/multiplexing SERS signals through molecule registration, concentration/accumulation, and allocation. In this review, after a brief introduction of the mechanism of SERS detection on proteins, we will first focus on the effectiveness of different nanostructures for SERS enhancement and light-to-heat conversion in trace protein analysis. Various protein molecule accumulation schemes by either (bio-)chemical or physical ways, such as immuno, electrochemical, Tip-enhanced Raman spectroscopy, and magnetic, will then be reviewed for further SERS signal amplification. The analytical and repeatability/stability issues of SERS detection on proteins will also be brought up for possible solutions. Then, the comparison about various ways employing microfluidic systems to register, concentrate, and enhance the signals of SERS and reduce the background noise by active or passive means to manipulate SERS nanostructures and protein molecules will be elaborated. Finally, we will carry on the discussion on the challenges and opportunities by introducing SERS into biomicrofluidic systems and their potential solutions.
机译:近年来,由于表面增强拉曼散射(SERS)具有无标记的指纹识别,高灵敏度和高灵敏度的功能,因此已广泛应用于许多不同领域,包括化学分析,生物分子检测,生物制剂诊断,DNA序列和环境监测器。快速检测。在生物微流体系统中,将基于SERS的设备与指定的微流体流场集成在一起以通过分子配准,浓缩/积累和分配进一步聚焦/增强/复用SERS信号也非常强大。在这篇综述中,在简要介绍了SERS检测蛋白质的机制之后,我们将首先关注痕量蛋白质分析中不同纳米结构对SERS增强和光热转换的有效性。然后,将通过(生物)化学或物理方式(例如免疫,电化学,尖端增强拉曼光谱和磁性)对各种蛋白质分子积累方案进行综述,以进一步进行SERS信号放大。 SERS检测蛋白质的分析和重复性/稳定性问题也将提出,以寻求可能的解决方案。然后,将详细阐述利用微流体系统通过主动或被动方式操纵SERS纳米结构和蛋白质分子来记录,浓缩和增强SERS信号并降低背景噪声的各种方式的比较。最后,我们将SERS引入生物微流体系统及其潜在解决方案中,以讨论挑战和机遇。

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