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Tuning oxygen vacancies and improving UV sensing of ZnO nanowire by micro-plasma powered by a triboelectric nanogenerator

机译:用摩擦纳米电器动力调节氧气空位,改善ZnO纳米线的紫外线感测

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摘要

Plasma technology is a common method in surface passivation and improving device performances. However, the requirement of expensive instruments makes it difficult to integrate into a device system and work together with devices. In this paper, a device system has been established by introducing a micro-plasma, which is powered by the high voltage of a triboelectric nanogenerator (TENG). It is demonstrated that the oxygen vacancies on ZnO nanowire are passivated by the micro-plasma step-by-step, as the operation time of TENG is controlled. After the oxygen vacancies are passivated by micro-plasma, the intrinsic resistance of the ZnO nanowire is increased significantly. As for the UV photodetector performances after micro-plasma passivation, the on-off ratio, the gain and bandwidth product, and the recovery speed are improved 254, 111, and 2651 times, respectively. The mechanisms of tuning oxygen vacancies and improving UV sensing properties of ZnO nanowire by micro-plasma have been discussed. Given the advantages of low cost, flexible modes, and simple operation of TENG, the TENG-based micro-plasma technology can be integrated into a device system to passivate surface defects and improve device performances, which has potential applications in developing smart and multifunctional sensors network in the era of internet of things.
机译:等离子体技术是表面钝化和改善装置性能的常见方法。然而,昂贵仪器的要求使得难以将其集成到设备系统中并与设备一起工作。在本文中,通过引入微等离子体来建立一种装置系统,该微等离子体由摩擦电纳米液(Teng)的高电压供电。结果表明,ZnO纳米线上的氧空位通过微等离子体逐步钝化,因为腾腾的操作时间被控制。氧空位通过微等离子体钝化后,ZnO纳米线的固有电阻显着增加。对于微等离子体钝化之后的UV光电探测器的性能,开关比率,增益和带宽产品以及恢复速度分别是改善的254,111和2651次。已经讨论了通过微等离子体调节氧空位和改善ZnO纳米线的UV感测性能的机制。鉴于成本低,稳定的模式和腾腾的简单操作,腾腾的微等离子体技术可以集成到设备系统中以钝化表面缺陷并改善设备性能,这在开发智能和多功能传感器方面具有潜在的应用。网络在互联网互联网时代。

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