Mini Review of Glucose Detection Using Plasmonic Sensor

Natasya Salsabiila, M. Morsin, S. Nafisah, N. L. Razali, F. Mahmud, Z. Tukiran
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Abstract

Glucose is a crucial compound in human life. Glucose has important roles in energy source production and overall brain health. In addition, it can be converted into other compounds essential for the growth, repair, and maintaining tissues throughout the body. Also, glucose becomes an indicator of diabetes, i.e., ill when the body can not produce insulin hormone properly. The poor management of diabetes can affect long-term complications that can significantly impact a person's quality of life and may lead to disability or even premature death if not properly addressed. Thus, it is important to do glucose detection to stay within a healthy range. The common methods patients use are glucose meters and urine testing on the laboratory scale. This method has several areas for improvement, such as being invasive, needing experts, and requiring a long-time detection. Thus, researchers come into various alternative glucose detection such as chromatography, mass spectrometry, electrochemical, and plasmonic sensor. Chromatography for glucose detection is rarely used in recent years because of its complexity. Then, for mass spectrometry, it is also complicated for the result and maintenance. As for electrochemical methods, the disadvantage is that other electroactive components on the sample can be interfered with. Plasmonic sensors that utilize the Localized Surface Plasmon Resonance (LSPR) phenomenon are considered due to their advantage, i.e., non-invasive, real-time monitoring, and highly sensitive to surrounding medium change. Plasmonic sensors usually use components of light absorption, luminescence, fluorescence, Raman scattering, reflectance, and refractive indexbased on the nanoparticles used as sensing materials. Still, transmission and reflection are popular and widely applied. Furthermore, plasmonic sensors generally consist of instruments such as a light source, fiber optic, chamber to place substrate/analyte, spectrometer/detector, and computer. Besides, plasmonic sensors can produce different analytical characteristics suitable for different cases and tuned for the need because of the various sensing materials used. Hence, plasmonic sensors become a promising alternative method for glucose detection.
等离子体传感器检测葡萄糖的研究进展
葡萄糖是人类生命中至关重要的化合物。葡萄糖在能量来源生产和整体大脑健康中起着重要作用。此外,它还可以转化为其他对生长、修复和维持全身组织必不可少的化合物。此外,葡萄糖成为糖尿病的指标,也就是说,当身体不能正常产生胰岛素激素时,就会生病。糖尿病管理不善会影响长期并发症,严重影响患者的生活质量,如果处理不当,可能导致残疾甚至过早死亡。因此,做葡萄糖检测以保持在健康范围内是很重要的。患者常用的方法是血糖仪和实验室规模的尿液检测。这种方法有几个需要改进的地方,比如侵入性、需要专家、需要长时间的检测。因此,研究人员开始研究各种替代的葡萄糖检测方法,如色谱法、质谱法、电化学和等离子体传感器。色谱法检测葡萄糖由于其复杂性,近年来很少使用。其次,质谱分析的结果和维护也比较复杂。对于电化学方法而言,缺点是样品上的其他电活性成分会受到干扰。利用局部表面等离子体共振(LSPR)现象的等离子体传感器由于其非侵入性、实时监测和对周围介质变化高度敏感等优点而被考虑。等离子体传感器通常使用基于纳米粒子的光吸收、发光、荧光、拉曼散射、反射率和折射率的组件作为传感材料。尽管如此,透射和反射仍然是流行和广泛应用的。此外,等离子体传感器通常由诸如光源、光纤、放置衬底/分析物的室、光谱仪/检测器和计算机等仪器组成。此外,等离子体传感器可以产生不同的分析特性,适用于不同的情况,并根据需要进行调整,因为所使用的传感材料不同。因此,等离子体传感器成为葡萄糖检测的一种很有前途的替代方法。
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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