SwiftQ: A Time-Efficient RFID Collision Arbitration Algorithm for Gen2-Based RFID Systems
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초록
In the realm of large-scale identification deployments, the EPCglobal Class-1 Generation-2 (Gen2) standardserves as a cornerstone, facilitating rapid processing of numerous passive RFID tags. The Q–Algorithm hasgarnered considerable attention for its potential to markedly enhance the efficiency of Gen2-based RFIDsystems with minimal adjustments. This paper introduces a groundbreaking iteration of the Q–Algorithm,termed Time-Efficient Q–Algorithm (SwiftQ), specifically designed to push the boundaries of time efficiencywithin Gen2-based RFID systems. Through exhaustive simulations, our study substantiates that SwiftQoutperforms existing algorithms by a significant margin, demonstrating exceptional expediency that positionsit as a formidable contender in the landscape of large-scale identification environments. By prioritizing timeefficiency, SwiftQ offers a promising solution to meet the escalating demands of contemporary Internet ofThings applications, underscoring its potential to catalyze advancements in RFID technology for diverseindustrial and logistical contexts.
Abstract
In the realm of large-scale identification deployments, the EPCglobal Class-1 Generation-2 (Gen2) standardserves as a cornerstone, facilitating rapid processing of numerous passive RFID tags. The Q–Algorithm hasgarnered considerable attention for its potential to markedly enhance the efficiency of Gen2-based RFIDsystems with minimal adjustments. This paper introduces a groundbreaking iteration of the Q–Algorithm,termed Time-Efficient Q–Algorithm (SwiftQ), specifically designed to push the boundaries of time efficiencywithin Gen2-based RFID systems. Through exhaustive simulations, our study substantiates that SwiftQoutperforms existing algorithms by a significant margin, demonstrating exceptional expediency that positionsit as a formidable contender in the landscape of large-scale identification environments. By prioritizing timeefficiency, SwiftQ offers a promising solution to meet the escalating demands of contemporary Internet ofThings applications, underscoring its potential to catalyze advancements in RFID technology for diverseindustrial and logistical contexts.
참고문헌 (10)
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