Long-Range Miniaturized Ceramic RFID Tags

Radio frequency identification (RFID) is a mature technology that allows contactless reading of data via a wireless communication link. While communication protocols in this field are subject to international regulations, there are plenty of opportunities to improve hardware realization of antenna d...

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Published in:IEEE transactions on antennas and propagation 2021-06, Vol.69 (6), p.3125-3131
Main Authors: Dobrykh, Dmitry, Yusupov, Ildar, Krasikov, Sergey, Mikhailovskaya, Anna, Shakirova, Diana, Bogdanov, Andrey A., Slobozhanyuk, Alexey, Filonov, Dmitry, Ginzburg, Pavel
Format: Article
Language:English
Subjects:
Antennas
Bandwidth
Ceramic resonators
Ceramics
Chips (memory devices)
Communication
dielectric resonant antennas (DRAs)
Dielectrics
Electromagnetic radiation
Internet of Things
Metals
Miniaturization
Permittivity
Radio frequency identification
radio frequency identification (RFID)
Resonators
RFID tags
Tags
Wireless communications
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cited_by cdi_FETCH-LOGICAL-c333t-fb3791369e545b22f3ff4de1ae5cc8d3a3b8a5d24f07be2b9708af00757dfac3
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container_title IEEE transactions on antennas and propagation
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creator Dobrykh, Dmitry
Yusupov, Ildar
Krasikov, Sergey
Mikhailovskaya, Anna
Shakirova, Diana
Bogdanov, Andrey A.
Slobozhanyuk, Alexey
Filonov, Dmitry
Ginzburg, Pavel
description Radio frequency identification (RFID) is a mature technology that allows contactless reading of data via a wireless communication link. While communication protocols in this field are subject to international regulations, there are plenty of opportunities to improve hardware realization of antenna devices that support this technology. In particular, readout range extension and miniaturization of passive RFID tags is an important challenge with far-reaching goals. Here, we introduce and analyze a new concept of high-permittivity ceramic tag that relies on different physical principles. Instead of using conduction currents in metallic wires to drive electronic chips and generate electromagnetic radiation, high-permittivity components rely on excitation of displacement currents. Those are efficiently converted to actual electric current which drives the memory chip. Practical aspects of this approach are improved robustness to environmental fluctuations, footprint reduction, and readout range extension. In particular, our high-permittivity ceramic ( \varepsilon ~ \sim ~100 ) elements have demonstrated a 25% reading range improvement in comparison to commercial tags. In case when state-of-the-art readers and RFID chips are used, the readout distances of the developed ceramic tags can reach 22 m. This number can be further extended with improved matching circuits. Miniature RFID tags, capable to establish long-range communication channels, can find use in many applications, including retail, security, Internet of Things, and many others.
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ispartof IEEE transactions on antennas and propagation, 2021-06, Vol.69 (6), p.3125-3131
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1558-2221
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source IEEE Electronic Library (IEL) Journals
subjects Antennas
Bandwidth
Ceramic resonators
Ceramics
Chips (memory devices)
Communication
dielectric resonant antennas (DRAs)
Dielectrics
Electromagnetic radiation
Internet of Things
Metals
Miniaturization
Permittivity
Radio frequency identification
radio frequency identification (RFID)
Resonators
RFID tags
Tags
Wireless communications
title Long-Range Miniaturized Ceramic RFID Tags
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