Javascript must be enabled to continue!
Design of A 20-Bit Chipless RFID Tag Utilizing Multiple Resonators in UWB Frequency Range
View through CrossRef
Radio frequency identification (RFID) is a growing technology for monitoring and recognizing objects, persons, or animals via wireless communications. Precisely, RFID can operate longer range and has an ability to be automated without human control. Chipless RFID tag basically is a RFID tag that does not require a microchip in the transponder. The major impediments in designing chipless RFID tag are data encoding and transmission. The passive chipless RFID tag can be fabricated on any substrate material without external operating circuit, which is different compared to a conventional chipped RFID tag. In this paper, 20 resonators are used to design a 20-bit chipless RFID tag, which operates at the ultra-wideband (UWB) frequency range between 3.00 and 10.00 GHz. It is found that the additional resonators can encode data and increase the chipless RFID tag's encoding capacity significantly. In sum, multiple resonators enable the chipless RFID tag to encode data at different operating frequencies.
Title: Design of A 20-Bit Chipless RFID Tag Utilizing Multiple Resonators in UWB Frequency Range
Description:
Radio frequency identification (RFID) is a growing technology for monitoring and recognizing objects, persons, or animals via wireless communications.
Precisely, RFID can operate longer range and has an ability to be automated without human control.
Chipless RFID tag basically is a RFID tag that does not require a microchip in the transponder.
The major impediments in designing chipless RFID tag are data encoding and transmission.
The passive chipless RFID tag can be fabricated on any substrate material without external operating circuit, which is different compared to a conventional chipped RFID tag.
In this paper, 20 resonators are used to design a 20-bit chipless RFID tag, which operates at the ultra-wideband (UWB) frequency range between 3.
00 and 10.
00 GHz.
It is found that the additional resonators can encode data and increase the chipless RFID tag's encoding capacity significantly.
In sum, multiple resonators enable the chipless RFID tag to encode data at different operating frequencies.
Related Results
Measurement of backscattered electric field of chipless radio frequency identification tag based on Rydberg atoms
Measurement of backscattered electric field of chipless radio frequency identification tag based on Rydberg atoms
Chipless radio frequency identification tags have been widely used in many areas, such as vehicle recognition and identification of goods. Near-field measurement of a chipless radi...
Exploring Value-Added Applications of Chipless RFID Systems to Enhance Wider Adoption
Exploring Value-Added Applications of Chipless RFID Systems to Enhance Wider Adoption
Radio-frequency identification technology (RFID) is a popular modern technology proven to deliver a range of value-added benefits to achieve system and operational efficiency, as w...
Design of Adaptive RFID RC522 on IoT Platform with Different Types Passive Tag Based on Self-Service Library Management System (SSLMS)
Design of Adaptive RFID RC522 on IoT Platform with Different Types Passive Tag Based on Self-Service Library Management System (SSLMS)
Radio Frequency Identification (RFID) refers to a wireless system comprising two components: tags and readers. The reader is a device with one or more antennas that emit radio wave...
Microwave performance of flexo-printed chipless RFID tags
Microwave performance of flexo-printed chipless RFID tags
Abstract
The chipless RFID tag is considered as a potential candidate to replace the expensive chip-based tags due to the possibility of high volume tag productio...
Coding of Chipless RFID Tag using Multiresonator
Coding of Chipless RFID Tag using Multiresonator
This research presents the design and simulation of chipless RFID tag based on retransmission. Chipless RFID tag design using inverted L-shaped multi-resonator is proposed in this ...
Radio Frequency Identification Temperature/CO2 Sensor Using Carbon Nanotubes
Radio Frequency Identification Temperature/CO2 Sensor Using Carbon Nanotubes
In the world of digitization, different objects cooperate with the Internet of Things (IoT); these objects also amplify using sensing and data processing structures. Radio frequenc...
Rock Bit Imbalance Force Prediction
Rock Bit Imbalance Force Prediction
Abstract
It is important to be able to predict the instantaneous forces and moments at the bit during drilling, but the rock/bit interaction process is not thorou...
Business value of RFID‐enabled healthcare transformation projects
Business value of RFID‐enabled healthcare transformation projects
PurposeThis paper aims to assess the business value realised from radio frequency identification (RFID)‐enabled healthcare transformation projects as compared with other industries...

