Fabrication and characterization of carbon-based flexible strain sensor

F. Fadzil, R. Sidek, H. Jaafar, M. Hamidon
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引用次数: 1

Abstract

This research covers carbon-based strain sensors which are designed and printed onto flexible substrates. Conductive nanocomposite of Polydimethylsiloxane (PDMS) and Carbon Black (CB) powder with 10% of CB have been used as the sensing element utilizing its flexibility and conductivity while silver conductive paste is used as the electrode for the strain sensor. Several designs with different length of strain sensors were printed using screen printing technology onto 0.75μm-Kapton HN film. Printed sensors were then cured at 85°C (for carbon printing) and 145°C (for silver printing). Parameters characterized are resistivity, conductivity and stretchability of the sensor using tensile test. The relationship between force, strain and resistance for all sensors designed are also discussed. The measured resistivity and conductivity of the sensor are 0.43 Ωm and 2.4 S/m respectively while the stretchability of the sensor on Kapton film has a maximum strain of 45%. This flexible strain sensor is very useful in many applications such as health monitoring systems, human motion detection and many more.
碳基柔性应变传感器的制备与表征
本研究涵盖了设计并印刷在柔性基板上的碳基应变传感器。采用含有10%炭黑的聚二甲基硅氧烷(PDMS)和炭黑(CB)粉末的导电纳米复合材料作为传感元件,利用其柔韧性和导电性,以银导电浆料作为应变传感器的电极。采用丝网印刷技术在0.75μm kapton HN薄膜上印刷了几种不同长度的应变传感器。然后在85°C(碳打印)和145°C(银打印)下固化打印的传感器。通过拉伸试验表征传感器的电阻率、电导率和拉伸性能。讨论了所设计传感器的力、应变和阻力之间的关系。测得传感器的电阻率和电导率分别为0.43 Ωm和2.4 S/m,传感器在Kapton薄膜上的拉伸性最大应变为45%。这种灵活的应变传感器在许多应用中非常有用,例如健康监测系统,人体运动检测等等。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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