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氧化锌纳米结构作为丙酮传感器气敏元件的研究进展:综述

Recent advances in ZnO nanostructure as a gas-sensing element for an acetone sensor: a short review.

机构信息

Department of Physics, Yeungnam University, Gyeongsan, Gyeongbuk, South Korea.

Department of Physics, G.G.M. Science College (A Constituent College of Cluster University of Jammu), University of Jammu, Jammu & Kashmir, India.

出版信息

Luminescence. 2023 Jul;38(7):1087-1101. doi: 10.1002/bio.4413. Epub 2022 Dec 4.

Abstract

Air pollution is a severe concern globally as it disturbs the health conditions of living beings and the environment because of the discharge of acetone molecules. Metal oxide semiconductor (MOS) nanomaterials are crucial for developing efficient sensors because of their outstanding chemical and physical properties, empowering the inclusive developments in gas sensor productivity. This review presents the ZnO nanostructure state of the art and notable growth, and their structural, morphological, electronic, optical, and acetone-sensing properties. The key parameters, such as response, gas detection limit, sensitivity, reproducibility, response and recovery time, selectivity, and stability of the acetone sensor, have been discussed. Furthermore, gas-sensing mechanism models based on MOS for acetone sensing are reported and discussed. Finally, future possibilities and challenges for MOS (ZnO)-based gas sensors for acetone detection have also been explored.

摘要

空气污染是一个全球性的严重问题,因为丙酮分子的排放扰乱了生物和环境的健康状况。金属氧化物半导体(MOS)纳米材料因其出色的化学和物理特性,对于开发高效传感器至关重要,推动了气体传感器生产能力的全面发展。本综述介绍了 ZnO 纳米结构的最新进展和显著的发展,以及它们的结构、形态、电子、光学和丙酮传感特性。讨论了丙酮传感器的关键参数,如响应、气体检测限、灵敏度、重现性、响应和恢复时间、选择性和稳定性。此外,还报告并讨论了基于 MOS 的丙酮传感气体传感机制模型。最后,还探讨了基于 MOS(ZnO)的气体传感器用于丙酮检测的未来可能性和挑战。

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