Analyzing RFID UHF Chips Through TID Prefix: Understanding the Data Behind the Identifier

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Analyzing RFID UHF Chips Through TID Prefix: Understanding the Data Behind the Identifier

RFID (Radio-Frequency Identification) technology uses radio waves to identify and track objects, animals, or people. UHF (Ultra-High Frequency) RFID chips are a common type of RFID technology used for a wide range of applications, including inventory management, access control, and supply chain management.

RFID UHF Chip:

An RFID UHF chip is a microchip that stores and transmits data using radio frequency signals. UHF RFID operates in the ultra-high frequency range, typically between 860-960 MHz, allowing for longer read ranges and faster data transfer compared to other RFID frequencies.

Memory Banks: RFID UHF chips typically consist of multiple memory banks, each of which stores different types of data. The most common memory banks in an RFID UHF chip include:

EPC (Electronic Product Code): The EPC memory bank stores a unique identifier for the item, which is used for tracking and managing individual items within a supply chain. EPC is crucial for inventory management and product authentication.

User Memory: User memory banks are used to store additional information, such as product-specific data, serial numbers, or other relevant details. User memory allows for customization and enhanced data storage.

TID (Tag Identifier): The TID memory bank contains information about the chip’s manufacturer, model, and a unique serial number. It helps identify the chip itself, which is useful for quality control and authentication purposes.

Reserved Memory: Some RFID UHF chips include reserved memory for specific applications or purposes. This memory bank can be allocated for specialized functions as needed.

Read-Write Capabilities: RFID UHF chips can be either read-only or read-write. Read-only chips contain a fixed set of data that cannot be modified, while read-write chips allow for data to be both read and written to the memory banks. This flexibility is useful in applications where data needs to be updated or changed over time.

Anti-Collision Technology: UHF RFID technology often includes anti-collision capabilities, allowing multiple RFID tags to be read simultaneously. Anti-collision algorithms ensure that tags do not interfere with each other during data transmission, making them suitable for high-density scenarios like inventory management.

Popular UHF RFID chip manufacturers, like Impinj, Alien Technology, and NXP Semiconductors, offer a variety of chip models with different memory capacities, features, and read ranges to meet specific application requirements. The choice of an RFID UHF chip depends on the application’s needs, such as read range, memory capacity, and cost considerations.

Decoding UHF RFID Chips:
A TID Prefix Guide for Identifying Chip Types and Memory Details
Abbreviation Manufacturer EPC Memory User Memory TID Prefix TID Memory
Higgs 3 Alien 96-bit 512-bit E200 3412 64 bits of serialized TID with 48-bit serial number
Higgs 9* Alien 96/496-bit Up to 688-bit E200 4715 48 bits of serialized TID with 32-bit serial number
Higgs 4* Alien 128-bit 128-bit E200 3414 64 bits of serialized TID with 32-bit serial number
Higgs EC Alien 128-bit 128-bit E200 3811 48 bits of serialized TID with 32-bit serial number
M4D Impinj 128-bit 32-bit E280 1100 96 bits of serialized TID with 48-bit serial number
M4i Impinj 256-bit 480-bit E280 1114 96 bits of serialized TID with 48-bit serial number
M4E Impinj 496-bit 128-bit E280 110C 96 bits of serialized TID with 48-bit serial number
M4QT Impinj 128-bit 512-bit E280 1105 96 bits of serialized TID with 48-bit serial number
R6-B Impinj 96-bit E280 1171 96 bits of serialized TID with 48-bit serial number
R6 Impinj 96-bit E280 1160 96 bits of serialized TID with 48-bit serial number
R6-A Impinj 96-bit E280 1171
R6-P Impinj 96/128-bit 64/32-bit E280 1170 96 bits of serialized TID with 48-bit serial number
M730 Impinj 128-bit E280 1191 96 bits of serialized TID with 48-bit serial number
M750 Impinj 96-bit 32-bit E280 1190 96 bits of serialized TID with 48-bit serial number
M4E Impinj Up to 496-bit 128-bit E280 110C 96 bits of serialized TID with 48-bit serial number
im NXP 256-bit 512-bit E280 680A 96 bits of serialized TID with 48-bit serial number
U5 NXP 128-bit 32-bit E280 1102 96 bits of serialized TID with 48-bit serial number
U6 NXP 96-bit E280 1160 96 bits of serialized TID with 48-bit serial number
U7 NXP 128-bit E280 6810 96 bits of serialized TID with 48-bit serial number
U7XM+ NXP 448-bit 2K-bit E280 6D92 96 bits of serialized TID with 48-bit serial number
U7XM-1k NXP 448-bit 1K-bit E280 6D12 96 bits of serialized TID with 48-bit serial number
U7XM-2k NXP 448-bit 2K-bit E280 6F12 96 bits of serialized TID with 48-bit serial number
U8 NXP 128-bit E280 6894 96 bits of serialized TID with 48-bit serial number
U8m NXP 96-bit 32-bit E280 6994 96 bits of serialized TID with 47-bit serial number
U9 NXP 96-bit E280 6995 96 bits of serialized TID with 48-bit serial number
UDNA NXP 224-bit 3K-bit E2C0 6892 96 bits of serialized TID with 48-bit serial number
UDNA C NXP 224-bit 1K-bit E2C0 6B12 96 bits of serialized TID
UDNA T NXP 448-bit 256-bit E2C0 6C12 96 bits of serialized TID
EPC Gen 2 NXP 96-bit 224-bit E200 6001 32 bits of serialized TID
G2iM NXP 256-bit 320/640-bit E200 680A 96 bits of serialized TID with 48-bit serial number
G2iM+ NXP 448-bit 512-bit E200 680B
G2iL NXP 128-bit E200 6806 64 bits of serialized TID with 32-bit serial number
G2iL+ NXP 128-bit E200 6807 64 bits of serialized TID with 33-bit serial number
G2XL NXP 240-bit 512-bit E200 6004 64 bits of serialized TID with 34-bit serial number
G2XM NXP 240-bit 512-bit E200 6003 64 bits of serialized TID with 35-bit serial number
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