Batch Fabrication of Flexible Paper-Based Pressure Sensors via Thermoplastic Self-Packaging

Chen Zhang, Rui Chen, Wenliya Luo, Yu Xie, Wei Zhou, Tao Luo
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Abstract

This paper describes a rapid method for batch fabrication of flexible paper-based pressure sensors. The processes involve printing silver electrodes on PET film using large-area screen printing, and soaking flexible papers in PEDOT: PSS aqueous dispersion. Then, papers are cut into square shaped pieces with a specific size using UV laser after drying to serve as the pressure sensing layer. The pressure sensing layers are laminated by the upper and lower electrodes to form a sandwich structure and sealed using a heat-sealing roller for thermoplastic packing. Multiple sensors are then cut and separated using UV laser. The process yields approximately 48 sensors per hour with a thickness of 0.16 mm, providing great flexibility for conformal attachment. These sensors have piecewise linearities over a pressure sensing range up to 325 kPa. They also exhibit fast excellent response time (25 ms) and recovery time (40 ms), good stability under the conditions of 2.5 Hz frequency response and 1000 cycles of loading and unloading. The simple and rapid manufacturing process makes these sensors highly promising for various applications such as robotic tactile sensing and wearable healthcare.
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热塑性自包装工艺批量制备柔性纸基压力传感器
本文介绍了一种快速批量制备柔性纸基压力传感器的方法。该工艺包括使用大面积丝网印刷在PET薄膜上印刷银电极,并将柔性纸浸泡在PEDOT: PSS水性分散液中。然后,纸张干燥后使用紫外激光切割成具有特定尺寸的正方形,作为压力感应层。压力传感层由上下电极层压形成夹层结构,并采用热塑性包装热封辊密封。然后使用紫外激光切割和分离多个传感器。该工艺每小时产生约48个传感器,厚度为0.16 mm,为保形连接提供了很大的灵活性。这些传感器在压力传感范围内具有分段线性,最大可达325 kPa。它们还具有快速优异的响应时间(25 ms)和恢复时间(40 ms),在2.5 Hz频率响应和1000次加载和卸载循环条件下具有良好的稳定性。简单快速的制造过程使这些传感器在机器人触觉传感和可穿戴医疗保健等各种应用中具有很大的前景。
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