Stretchable Piezoelectric Tensile Sensor Patterned via Ultraviolet Laser Cutting

Mayue Shi, A. Holmes, E. Yeatman
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Abstract

This paper reports a piezoelectric dynamic tensile sensor comprising a metalized polyvinylidene fluoride (PVDF) film patterned with fractal curves and encapsulated in polydimethylsiloxane (PDMS). Because of the high precision and low peripheral heating of the UV laser process, we could achieve a PVDF linewidth down to 600 μm with single step cutting while maintaining piezoelectric functionality. With a second-order fractal curve, our PVDF sensor is omnidirectionally stretchable. In tensile tests using a linear slider, we found this sensor showed good dynamic sensitivity, detecting extension rates down to 5 mm/s. UV laser cutting provides a simple, fast and cheap fabrication process for stretchable piezoelectric devices including low-power sensors and wearable energy harvesters. The fabrication process and the device are highly compatible with rapidly developing stretchable self-powered systems.
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紫外激光切割可拉伸压电张力传感器
本文报道了一种压电式动态张力传感器,该传感器由分形曲线图案的金属化聚偏氟乙烯(PVDF)薄膜和聚二甲基硅氧烷(PDMS)封装而成。由于UV激光加工的高精度和低外围加热,我们可以在保持压电功能的情况下实现PVDF线宽低至600 μm的单步切割。利用二阶分形曲线,我们的PVDF传感器是全方位可拉伸的。在使用线性滑块的拉伸测试中,我们发现该传感器具有良好的动态灵敏度,可以检测到低至5 mm/s的拉伸速率。紫外激光切割为包括低功率传感器和可穿戴能量采集器在内的可拉伸压电器件提供了一种简单、快速和廉价的制造工艺。制造工艺和器件与快速发展的可拉伸自供电系统高度兼容。
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