IP Library Granted Patent US 9,272,805
Granted Patent B2
US 9,272,805 · App. 13/526,520 · Granted Mar 1, 2016

Systems, methods, and devices for commissioning wireless sensors

Inventor: Clarke William McAllister (Eugene, OR)
Assignee: ADASA INC.
B65C9/1865B65C11/006G06K19/077G06K19/07716B65C2009/0003B65C2009/404G06K2017/0041
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Quick Facts
Patent No.
US 9,272,805
App. No.
13/526,520
Granted
Mar 1, 2016
Kind
B2
Abstract

In one embodiment the present invention comprises a smartphone and encoders for commissioning RFID transponders. The present invention further includes novel systems, devices, and methods for commissioning RFID transponders with unique object class instance numbers without requiring a realtime connection to a serialization database.

Claims (35)

1. An RFID transponder comprising:

a substrate;

an antenna structure formed on the substrate; and

an RFID integrated circuit chip which is electrically coupled to the antenna structure,

wherein the RFID integrated circuit chip is encoded with a unique object number, the unique object number comprising an object class information space and a unique serial number space, and

wherein the unique serial number space has an allocated block stored therein defined by a limited number of most significant bits of the unique serial number space as designated by an external numbering authority.

2. The RFID transponder of claim 1 , wherein remaining bits of lesser significance of the unique serial number space are encoded with a unique serial number for the object class.

3. The RFID transponder of claim 1 , wherein the object class information space is encoded with information comprising a company prefix, an item reference, a partition value, and a filter value.

4. The RFID transponder of claim 1 , wherein the unique object number is a portion of a serialized global trade item number.

5. The RFID transponder of claim 4 , wherein the serialized global trade item number is an EPC SGTIN-96 encoding.

6. The RFID transponder of claim 1 , wherein the unique serial number space is at least 38 bits.

7. The RFID transponder of claim 1 , wherein the allocated block is defined by at least 3 most significant bits.

8. The RFID transponder of claim 1 , wherein the allocated block is assigned based at least in part on a block starting serial number and a block size number within the unique serial number space.

9. The RFID transponder of claim 1 , wherein the allocated block is one of a plurality of allocations intermittently received by an encoder from an external numbering authority.

10. The RFID transponder of claim 1 , wherein the RFID integrated circuit chip is comprised of silicon.

11. The RFID transponder of claim 1 , wherein the RFID integrated circuit chip is comprised of polymer.

12. The RFID transponder of claim 1 , wherein the substrate, antenna structure, and RFID integrated circuit chip are covered by a face stock material.

13. The RFID transponder of claim 1 , wherein the RFID integrated circuit chip is disposed on the substrate.

14. A RFID transponder comprising:

a substrate;

an antenna structure formed on the substrate; and

an RFID integrated circuit chip which is electrically coupled to the antenna structure,

wherein the RFID integrated circuit chip is encoded with a global trade item number including a unique object number, the unique object number comprising an object class information space including a block of at least 50 bits and a unique serial number space including a block of at least 38 bits, and

wherein the unique serial number space has at least one allocated block stored therein defined by at least 3 most significant bits of the unique serial number space as designated by an external numbering authority.

15. The RFID transponder of claim 14 , wherein remaining bits of lesser significance of the unique serial number space are encoded with a unique serial number for the object class.

16. An integrated circuit, comprising:

a radio frequency circuit configured to backscatter a return link signal for processing by an RFID interrogator;

control logic; and

a memory,

wherein the memory is configured with a unique object number space, the unique object number space comprising an object class information space and a unique serial number space, and

wherein the unique serial number space is encoded with an allocated block defined by a limited number of most significant bits of the unique serial number space as designated by an external numbering authority.

17. The integrated circuit of claim 16 , wherein remaining bits of lesser significance of the unique serial number space are encoded with a unique serial number for the object class.

18. The integrated circuit of claim 16 , wherein the object class information space is encoded with information comprising a company prefix, an item reference, a partition value, and a filter value.

19. The integrated circuit of claim 16 , wherein the unique object number is a portion of a serialized global trade item number.

20. The integrated circuit of claim 19 , wherein the serialized global trade item number is an EPC SGTIN-96 encoding.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Feb 29, 2016
From: MCALLISTER, CLARKE
To: ADASA INC.
Reel/Frame 037854/0923 →
Continuity (6)
Continuation In Part 12820109 · Jun 21, 2010
Continuation In Part 11465712 · Aug 18, 2006
Continuation In Part 12124768 · May 21, 2008
Provisional Application 60709713 · Aug 19, 2005
Provisional Application 60939603 · May 22, 2007
Related Publication 20120256732A1 · Oct 11, 2012