Printed Single-Chip RFID Tags on Uncoated Paper for Environmental Monitoring Applications

IF 2.2 Q3 ENGINEERING, ELECTRICAL & ELECTRONIC
Lukas Rauter;Lukas Neumaier;Tutku Bedük;Martin Lenzhofer;Arnold Horn;Muhammad Hassan Malik;Johanna Zikulnig;Razvan Oltean;Albert Seiler;Jürgen Kosel
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Abstract

The growing demand for sustainable and efficient environmental monitoring systems has driven the development of innovative sensor technologies. This study presents a hybrid ultra-high frequency radio-frequency identification (RFID) sensor tag fabricated on uncoated paper substrate, which constitutes approximately 87% of the tag's mass thereby making the sensor tag more sustainable and eco-friendly. The sensor tag integrates an AS3213C.4 RFID chip together with an antenna, an interdigitated capacitor as a humidity sensor, pads, and interconnects. Temperature sensing is facilitated by the RFID chip's internal temperature sensor, while humidity is monitored through changes in the printed capacitor. All structures except for the chip were screen printed using a conductive silver ink. The silver layer exhibited a thickness of 5.6 μm and a sheet resistance of 56.4 mΩ/sq, sufficient for wireless communication over a distance of 2 m. The sensor was wirelessly interrogated using a Kathrein antenna and reader system, with data retrieved via commercial software. Temperature tests demonstrated accurate readings from 26 °C to 80 °C, aligning with the chip's specifications of −40 °C to 125 °C, with a precision of 1 °C in the range of 10 °C to 50 °C. Humidity measurements in a climate chamber, conducted between 15% and 55% relative humidity, showed an average sensitivity of 0.45% per % humidity change. Hysteresis effects of 7.4% were observed due to the moisture absorption and structural changes of the paper substrate. This work highlights the potential of paper-based sensor tags for sustainable environmental monitoring, aligning with the principles of Industry 4.0 and the Internet of Things (IoT), while addressing the growing challenge of electronic waste.
用于环境监测应用的无涂布纸单芯片RFID标签
对可持续和高效的环境监测系统不断增长的需求推动了创新传感器技术的发展。本研究提出了一种混合超高频射频识别(RFID)传感器标签,该标签在未涂布的纸基板上制造,约占标签质量的87%,从而使传感器标签更具可持续性和环保性。传感器标签集成了AS3213C.4RFID芯片与天线、作为湿度传感器的交叉电容、衬垫和互连在一起。通过RFID芯片的内部温度传感器实现温度传感,而通过印刷电容器的变化监测湿度。除了芯片以外的所有结构都是用导电银墨水丝网印刷的。银层的厚度为5.6 μm,片电阻为56.4 mΩ/sq,足以在2 m距离内进行无线通信。传感器使用Kathrein天线和读取系统进行无线查询,并通过商业软件检索数据。温度测试显示了26°C至80°C的准确读数,与芯片的规格- 40°C至125°C保持一致,在10°C至50°C的范围内精度为1°C。在相对湿度为15%至55%的气候室中进行的湿度测量显示,湿度每变化%,平均灵敏度为0.45%。由于纸张的吸湿和结构变化,产生了7.4%的迟滞效应。这项工作强调了纸质传感器标签在可持续环境监测方面的潜力,与工业4.0和物联网(IoT)的原则保持一致,同时应对日益严峻的电子废物挑战。
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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来源期刊
IEEE Sensors Letters
IEEE Sensors Letters Engineering-Electrical and Electronic Engineering
CiteScore
3.50
自引率
7.10%
发文量
194
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