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用于印刷电子的基于无芯片射频识别的多传感器标签。

Chipless RFID based multi-sensor tag for printed electronics.

作者信息

Nadeem Momina, Habib Ayesha, Umair Mir Yasir

机构信息

Department of Electrical Engineering, National University of Sciences and Technology, Islamabad 46000, Pakistan.

出版信息

Heliyon. 2024 Feb 19;10(4):e26494. doi: 10.1016/j.heliyon.2024.e26494. eCollection 2024 Feb 29.

Abstract

This research presents the design and implementation of a chipless Radio Frequency Identification (RFID) multi-sensor tag on a flexible laminate. Along with the tag's primary function of data encoding for object identification purposes, the tag also incorporates moisture and temperature sensing functionalities within a compact size measuring a mere 15 × 16 mm. The tag structure comprises of a total 29 resonators, with each resonator corresponding to one bit in the microwave response. The initial design utilized the bendable Rogers RT/duroid®5880 within a frequency band of 5.48-28.87 GHz. To conduct a comprehensive comparative analysis, the tag design is optimized for two distinct substrates including Kapton®HN and PET. The optimization process involves exploring the utilization of both silver nanoparticle-based ink and Aluminum as radiators. The sensing feature was incorporated by deploying a thin film of Kapton®HN over the longest slot of the tag which acts as a moisture sensor. Temperature sensing feature was achieved by combining Stanyl® polyamide, a temperature dependent polymer, with Rogers RT/duroid®5880 which served as a fused substrate. The tag showcases a high code density of 12.08 bits/cm enabling it to efficiently label 2 unique items. Its unique features include flexibility, miniaturized design, printability, cost-effectiveness and multi sensing property.

摘要

本研究展示了一种基于柔性层压板的无芯片射频识别(RFID)多传感器标签的设计与实现。除了用于物体识别的数据编码这一主要功能外,该标签还在仅15×16毫米的紧凑尺寸内集成了湿度和温度传感功能。标签结构总共由29个谐振器组成,每个谐振器对应微波响应中的一位。初始设计在5.48 - 28.87吉赫兹频段内使用了可弯曲的罗杰斯RT/duroid®5880。为了进行全面的对比分析,针对包括Kapton®HN和PET在内的两种不同基板对标签设计进行了优化。优化过程包括探索使用基于银纳米颗粒的墨水和铝作为辐射器。通过在标签最长的缝隙上部署一层Kapton®HN薄膜作为湿度传感器来实现传感功能。通过将温度依赖性聚合物Stanyl®聚酰胺与用作融合基板的罗杰斯RT/duroid®5880相结合来实现温度传感功能。该标签展示了12.08比特/厘米的高编码密度,使其能够有效地标记2个独特物品。其独特特性包括灵活性、小型化设计、可印刷性、成本效益和多传感特性。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/061c/10901020/1800f31cb00a/gr1.jpg

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