优化PET喷墨打印无芯片RFID传感器的打印层数

Enrico Zanazzi, Giada Marchi, V. Mulloni, M. Donelli, L. Lorenzelli
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引用次数: 4

摘要

本文对聚对苯二甲酸乙二醇酯(PET)喷墨打印导电谐振器的性能进行了初步优化研究,并在1-20层的范围内增加了打印层数。对样品进行了测试,并证明了频率响应的幅度随层数的增加而服从幂函数。结果表明,仅打印2层时,信号强度接近层数最多(20层)时最大强度的70%,打印5层时信号强度达到83%。这表明,只有很少的沉积层可以被认为是一个很好的妥协,为生产射频识别(RFID)谐振器通过喷墨打印在PET上。最后,将选定的样品作为无芯片湿度传感器,在150 μ m厚的Nafion 117敏感材料配置中进行测试。
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Optimizing the number of printed layers in a PET inkjet-printed chipless RFID sensor
This paper presents a preliminary optimization study of the performance of conductive resonators inkjet-printed on polyethylene terephthalate (PET) with an increasing number of printed layers in a range 1-20 layers. Samples were tested and the amplitude of the frequency response was demonstrated to follow a power function with the increasing number of layers. Results indicate that with only 2 printed layers the signal intensity approaches 70% of the maximum intensity obtained with the highest number of layers (20), and that with 5 printed layers the signal reaches 83%. This demonstrates that only few deposited layers can be considered a good compromise for the production of Radio-Frequency IDentification (RFID) resonators by inkjet-printing on PET. Finally, the selected sample was tested as a chipless humidity sensor in a configuration with a 150µm-thick Nafion 117 sensitive material.
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