材料科学
制作
微尺度化学
标度系数
热电偶
氧化铟锡
铟
纳米颗粒
纳米技术
温度测量
光电子学
大气温度范围
复合材料
图层(电子)
物理
气象学
医学
数学教育
数学
替代医学
病理
量子力学
作者
Md. Omarsany Bappy,Qiang Jiang,Stephanie Atampugre,Yanliang Zhang
标识
DOI:10.1021/acsanm.4c00907
摘要
Integrating multiple sensing capabilities into a single multimodal sensor greatly enhances its applications for in situ sensing and structural health monitoring. However, the fabrication of multimodal sensors is complicated and limited by the available materials and existing manufacturing methods that often involve complicated and expensive fabrication processes. In this study, a high-temperature bimodal sensor is demonstrated by the aerosol jet printing (AJP) of gold and indium tin oxide nanoparticle inks. The printed bimodal sensor for concurrent strain and temperature sensing possesses a high gauge factor of 2.54 and thermopower of 55.64 μV/°C combined with excellent high-temperature thermal stability of up to 540 °C. Compared to traditional single-modality sensors, the printed bimodal sensor significantly increases the sensing capacity and improves spatial resolution using microscale printed patterns. The study also demonstrates that the strain sensor with an integrated thermocouple enables in situ compensation of the temperature effect on strain sensing, significantly improving strain measurement accuracy at high temperatures. By the combination of AJP with nanomaterial inks, a wide range of multifunctional devices can be developed for a broad range of emerging applications.
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