高动态环境下的超快速湿度传感器和瞬态湿度检测。

Fang Liu, Jin Hong, Xiangdong Chen, Xing Ding, Shaopeng Li, Xiang Yu, Jiaqi Lu, Xuan Zhao, Kun Tang, Chenghua Xie, Kemei Zhao
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引用次数: 0

摘要

传统的湿度传感器,如基于聚合物电解质、多孔陶瓷和金属氧化物的传感器,由于受水分子吸附和扩散速度的限制,通常具有较长的响应时间,这阻碍了它们在监测瞬态湿度变化方面的应用。在这里,我们提出了一种具有毫秒级响应的超快湿度传感器。该传感器是利用简单的静电自组装技术将单层氧化石墨烯量子点组装在二氧化硅微球上制备的。得益于微球和超薄湿敏膜的共同作用,该传感器的响应时间(2.76 ms)和恢复时间(12.4 ms)是电子湿度传感器中最快的。通过传感器的超快响应,揭示了语音气流湿度变化与语音活动的相关性,展示了湿度语音活动检测的抗噪声性,证实了爆炸引起的湿度冲击,实现了超高频呼吸监测,验证了无创呼吸机中湿度触发的效果。该超快湿度传感器在监测瞬态湿度变化方面具有广阔的应用前景。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Ultrafast humidity sensor and transient humidity detections in high dynamic environments.

Limited by the adsorption and diffusion rate of water molecules, traditional humidity sensors, such as those based on polymer electrolytes, porous ceramics, and metal oxides, typically have long response times, which hinder their application in monitoring transient humidity changes. Here we present an ultrafast humidity sensor with a millisecond-level response. The sensor is prepared by assembling monolayer graphene oxide quantum dots on silica microspheres using a simple electrostatic self-assembly technique. Benefiting from the joint action of the micro spheres and the ultrathin humidity-sensitive film, it displays the fastest response time (2.76 ms) and recovery time (12.4 ms) among electronic humidity sensors. With the ultrafast response of the sensor, we revealed the correlation between humidity changes in speech airflow and speech activities, demonstrated the noise immunity of humidity speech activity detection, confirmed the humidity shock caused by explosions, realized ultrahigh frequency respiratory monitoring, and verified the effect of humidity-triggering in the non-invasive ventilator. This ultrafast humidity sensor has broad application prospects in monitoring transient humidity changes.

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