RFID Sensor for Breaks in Cold Chain Applications

This paper presents a low-profile RFID sensor to detect disruptions in cold-chain operations. The sensor consists of a modified meander line resonator with a UCODE G2iL RFID chip positioned at its center. It is tailored to monitor the ice's presence of ice on its surface, operating within an impedance bandwidth of 913 – 922 MHz, which is compatible with the European RFID band. The sensor's resonant frequency is sensitive to changes in permittivity, as the Material Under Test is placed atop the sensor. When ice melts into water, the overall permittivity increases, causing a reduction in the sensor's resonant frequency. If excessive water accumulates, the sensor's resonant frequency falls outside the RFID band (915 – 921 MHz), indicating a break in the cold chain. Additionally, the sensor maintains a similar E-field distribution and radiation pattern to a conventional dipole, with a maximum gain of −0.4 dBi, making it viable for practical applications.

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Publication Details

Published
2025-03-30
DOI
https://doi.org/10.23919/eucap63536.2025.10999284
Primary Topic
RFID technology advancements
Type
article
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article

RFID Sensor for Breaks in Cold Chain Applications

Cong Danh Bui, Adam Narbudowicz
RFID technology advancements
article

RFID Sensor for Breaks in Cold Chain Applications

Cong Danh Bui, Adam Narbudowicz
article en

Abstract

This paper presents a low-profile RFID sensor to detect disruptions in cold-chain operations. The sensor consists of a modified meander line resonator with a UCODE G2iL RFID chip positioned at its center. It is tailored to monitor the ice's presence of ice on its surface, operating within an impedance bandwidth of 913 – 922 MHz, which is compatible with the European RFID band. The sensor's resonant frequency is sensitive to changes in permittivity, as the Material Under Test is placed atop the sensor. When ice melts into water, the overall permittivity increases, causing a reduction in the sensor's resonant frequency. If excessive water accumulates, the sensor's resonant frequency falls outside the RFID band (915 – 921 MHz), indicating a break in the cold chain. Additionally, the sensor maintains a similar E-field distribution and radiation pattern to a conventional dipole, with a maximum gain of −0.4 dBi, making it viable for practical applications.

Trinity College Dublin (IE)
Affordable and clean energy
Openalex Percentile: Top 85%
RFID technology advancements
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