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Developing RFID Tag Estimation

2012-2015

Technical Executive

Research Project

 

Performance and Relibility of Radio Frequency Identification (RFID)

 

Innovation Fund, Project Number: INOVASI-2011-033

                                                        INOVASI-2012-022

 

Under Supervision of: Associate Prof. Dr. Mandeep JS

                                    Professor Dr. Tariqul Islam

                           

Radio lab, Level 2, Engineering Faculty, The National University of Malaysia (UKM)

 

May 2012 - May 2015

Abstract:

The main objective of Radio Frequency Identification (RFID) systems is to provide fast identification for tagged objects. However, there is always a chance of collision, when tags transmit their data to the reader simultaneously. Collision is a time-consuming event that reduces the performance of RFID systems. Consequently, several anti-collision algorithms have been proposed in the literature. Dynamic Framed Slotted ALOHA (DFSA) is one of the most popular of these algorithms. DFSA dynamically modifies the frame size based on the number of tags. Since the real number of tags is unknown, it needs to be estimated. Therefore, an accurate tag estimation method has an important role in increasing the efficiency and overall performance of the tag identification process. In this research project, we propose a novel estimation technique for DFSA anti-collision algorithms that applies birthday paradox theory to estimate the number of tags accurately. The analytical discussion and simulation results prove that the proposed method increases the accuracy of tag estimation and, consequently, outperforms previous schemes.

 

Related links:

Extending Birthday Paradox Theory to Estimate the Number of Tags in RFID Systems

 

Cubic spline-based tag estimation method in RFID multi-tags identification process

© 2023 by Masoud Shakiba, Computer Engineering. 

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