Jie Sun;Antoine Diet;Yann Le Bihan;Marc Biancheri-Astier;Chadi Gannouni;Michel Police
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引用次数: 0
摘要
13.56 MHz 高频射频识别(HF RFID)和近场通信(NFC)标签具有小型化、轻量化设计和成本效益高等优点,在生物医学、跟踪和物流等各个领域的应用日益广泛,为工业和商业带来了极大的便利,同时也减轻了医疗和就业压力。然而,标签越小,越不容易固定方向。由于这类标签的检测依赖于磁耦合,因此方向灵敏度很高,在实际应用中,在所考虑的相关体积内会出现一些检测空。因此,必须优化 NFC 阅读器产生的磁场矢量分布。本文使用两个串联的并联调谐线圈(RLC 谐振器模型)组合作为 RFID/NFC 阅读器线圈。在这种系统中,馈入线圈的电流是正交的。该系统由两相线圈组成。此外,每个线圈都由放置在立方体相对表面上的两个子线圈组成,这就是本文介绍的系统原型。我们对 CST 仿真进行了分析,并实现了带有铜带的 3D 打印立方体结构,通过实验验证了这一想法。使用商用高频 RFID 阅读器和 ISO15693 NFC 标签进行了检测测试。
Planar Omnidirectional Detection of RFID/NFC Patches Inside a Cubic Structure
Benefiting from advantages such as miniaturization, lightweight design, and cost-effectiveness, 13.56 MHz High Frequency Radio Frequency Identification (HF RFID) and Near Field Communication (NFC) tags have found increasing applications across various fields like biomedical, tracking, and logistics, bringing a lot of convenience to the industries and commercials, as well as decreasing the medical and employment pressure. Nevertheless, the smaller the tag, the less likely it is to be fixed in orientation. As the detection of such tags relies on magnetic coupling, the orientation sensitivity is high, and some nulls of detection are introduced inside the considered volume of interest in practical applications. It is essential to optimize the magnetic field vectorial distribution generated by the NFC reader. This paper uses a combination of two paralleled tuned coils (RLC resonator model) in series to be the RFID/NFC reader coils. In such a system, the currents feeding the coils are in quadrature. The system is made of two-phase coils. Additionally, each coil is composed of two sub-coils placed on opposite surfaces of a cube, for the prototype of this system presented in the paper. CST simulations have been analyzed and a 3D printed cube structure with copper tapes has been realized, to validate the idea experimentally. Detection tests were performed with a commercial HF RFID reader and an ISO15693 NFC tag.