走向实时氧传感:从纳米材料到等离子体

V. Johny, K. Chinmaya, Muhammed Nihal C. V., V. Kurian, G. M. Rao, M. Ghosh, Siddhartha Ghosh
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引用次数: 0

摘要

高通量超高灵敏度氧传感器的科学和工程发展有很大的空间。我们给出了两种物质物理状态——固态纳米材料和等离子体的氧传感前景。从单分子实验到材料选择,我们回顾了传感的各个方面,如电容、光物理、电子迁移率、响应时间,以及每年的进展。在小型化方面,我们强调了基于芯片的实验室设备的优势,并展示了快速实时氧传感的示例测量。从物理化学的角度来看,等离子体在氧传感方面具有很强的应用潜力。我们研究了当前最先进的电子密度、温度和等离子体系统的设计问题。我们还展示了从家用蜡烛火焰中开发等离子体氧传感器的低成本方法的数值方面。从这一角度出发,我们将对不同的科学见解提出意见,找出不足之处,并为氧传感器的新物理化学设备开发开辟道路,同时为氧传感器的创新者提供指导。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Towards Real-Time Oxygen Sensing: From Nanomaterials to Plasma
A significantly large scope is available for the scientific and engineering developments of high-throughput ultra-high sensitive oxygen sensors. We give a perspective of oxygen sensing for two physical states of matters—solid-state nanomaterials and plasma. From single-molecule experiments to material selection, we reviewed various aspects of sensing, such as capacitance, photophysics, electron mobility, response time, and a yearly progress. Towards miniaturization, we have highlighted the benefit of lab-on-chip-based devices and showed exemplary measurements of fast real-time oxygen sensing. From the physical–chemistry perspective, plasma holds a strong potential in the application of oxygen sensing. We investigated the current state-of-the-art of electron density, temperature, and design issues of plasma systems. We also show numerical aspects of a low-cost approach towards developing plasma-based oxygen sensor from household candle flame. In this perspective, we give an opinion about a diverse range of scientific insight together, identify the short comings, and open the path for new physical–chemistry device developments of oxygen sensor along with providing a guideline for innovators in oxygen sensing.
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