Laboratory of Inorganic & Analytical Chemistry, School of Chemical Engineering, Department 1, Chemical Sciences, National Technical University of Athens, 157 80 Athens, Greece.
Laboratory of Environmental Chemistry, Department of Chemistry, University of Athens, 157 72 Athens, Greece.
Sensors (Basel). 2018 Jan 18;18(1):284. doi: 10.3390/s18010284.
The advent of nanotechnology has brought along new materials, techniques, and concepts, readily adaptable to lipid membrane-based biosensing. The transition from micro-sensors to nano-sensors is neither straightforward nor effortless, yet it leads to devices with superior analytical characteristics: ultra-low detectability, small sample volumes, better capabilities for integration, and more available bioelements and processes. Environmental monitoring remains a complicated field dealing with a large variety of pollutants, several decomposition products, or secondary chemicals produced ad hoc in the short- or medium term, many sub-systems affected variously, and many processes largely unknown. The new generation of lipid membranes, i.e., nanosensors, has the potential for developing monitors with site-specific analytical performance and operational stability, as well as analyte-tailored types of responses. This review presents the state-of-the art, the opportunities for niche applicability, and the challenges that lie ahead.
纳米技术的出现带来了新材料、技术和概念,这些都很容易适应基于脂质膜的生物传感。从微传感器到纳米传感器的转变既不容易也不轻松,但它带来了具有卓越分析特性的设备:超低检测性、小样本量、更好的集成能力,以及更多可用的生物元素和过程。环境监测仍然是一个复杂的领域,涉及到各种各样的污染物、几种分解产物或短期或中期临时产生的次生化学物质,许多子系统受到不同程度的影响,许多过程在很大程度上是未知的。新一代的脂质膜,即纳米传感器,有可能开发出具有特定分析性能和运行稳定性的监测器,以及针对分析物的响应类型。本文综述了现状、利基应用的机会和未来的挑战。