Elosua Cesar, Arregui Francisco Javier, Villar Ignacio Del, Ruiz-Zamarreño Carlos, Corres Jesus M, Bariain Candido, Goicoechea Javier, Hernaez Miguel, Rivero Pedro J, Socorro Abian B, Urrutia Aitor, Sanchez Pedro, Zubiate Pablo, Lopez-Torres Diego, Acha Nerea De, Ascorbe Joaquin, Ozcariz Aritz, Matias Ignacio R
Department of Electric and Electronic Engineering, Public University of Navarre, E-31006 Pamplona, Spain.
Institute of Smart Cities (ISC), Public University of Navarre, E-31006 Pamplona, Spain.
Sensors (Basel). 2017 Oct 11;17(10):2312. doi: 10.3390/s17102312.
The measurement of chemical and biomedical parameters can take advantage of the features exclusively offered by optical fibre: passive nature, electromagnetic immunity and chemical stability are some of the most relevant ones. The small dimensions of the fibre generally require that the sensing material be loaded into a supporting matrix whose morphology is adjusted at a nanometric scale. Thanks to the advances in nanotechnology new deposition methods have been developed: they allow reagents from different chemical nature to be embedded into films with a thickness always below a few microns that also show a relevant aspect ratio to ensure a high transduction interface. This review reveals some of the main techniques that are currently been employed to develop this kind of sensors, describing in detail both the resulting supporting matrices as well as the sensing materials used. The main objective is to offer a general view of the state of the art to expose the main challenges and chances that this technology is facing currently.
无源特性、电磁免疫性和化学稳定性是其中一些最相关的特性。光纤的小尺寸通常要求将传感材料加载到一种支撑基质中,该基质的形态在纳米尺度上进行调整。得益于纳米技术的进步,已经开发出了新的沉积方法:它们允许将具有不同化学性质的试剂嵌入到厚度始终低于几微米的薄膜中,这些薄膜还具有相关的纵横比,以确保有一个高转换界面。这篇综述揭示了目前用于开发这类传感器的一些主要技术,详细描述了所得到的支撑基质以及所使用的传感材料。主要目的是提供一个技术现状的总体概述,以揭示该技术目前面临的主要挑战和机遇。