Avery Dennison Corporation

Eagile, Inc.

Performance Systematix, Inc.

Peter C Phaneuf

Gary P Burns

Michael Isabell

Patrick Hornacek

Patrick Jacob Vigneron

An RFID/object recognition system monitors the passage of an object through a portal into a space. An RFID reader adjacent the portal communicates with an RFID tag within a preselected distance from the RFID reader. A data processor processes data from the RFID reader. A 3-dimensional scanner has an RGB camera and a depth sensor with an infrared laser projector and a monochrome CMOS sensor. An infrared laser controller is electronically coupled with the infrared laser projector, and a monochrome CMOS processor is electronically coupled with the monochrome CMOS sensor. The infrared laser controller, monochrome CMOS processor, and RGB camera are electronically coupled with a processor. The RFID reader receives data from an RFID tag when an RFID-tagged object passes within the preselected distance from the RFID reader through the portal. The 3-dimensional object recognition assembly identifies where the RFID-tagged object is located within the defined space.

Portal with RFID tag reader and object recognition functionality, and method of utilizing same

A container closure assembly includes a closure, an inner seal, and a radio frequency identification tag. The inner seal comprises a sealable film laminated to a metallic foil, and includes a first surface for sealing engagement with a container sealing surface, and a second, opposed surface for non-scaling engagement with a backing liner, a facing liner, or a glued-in closure liner. The radio frequency identification tag includes a microprocessor electrically coupleable with an antenna for receiving, storing, and transmitting digitized information. The inner seal minimizes migration of fluids between a container interior volume and an exterior of a container when the inner seal is sealingly engaged with a container sealing surface. The radio frequency identification tag is includable in the closure assembly without the closure assembly electromagnetically interfering with the receiving, storing, or transmitting of the digitized information.

Container seal with radio frequency identification tag, and method of making same

A radio frequency identification (RFID) enabled crate () includes: a plurality of sides (); an RFID inlay () supported on a first one of the plurality of sides; and an antenna () coupled to the RFID inlay (). Suitably, the antenna () extends at least partially across at least a second one of the plurality of sides (), the second one of the sides being different from the first one where the RFID inlay () is located.

RFID enabled crate with wraparound antenna

A container defines an interior volume, an opening into the interior volume, and a sealing surface bordering the opening. A closure assembly for the container comprises an imperforate sealable metal liner for covering a container opening in its entirety. A radio frequency identification tag includes a microprocessor electrically coupled with an antenna through mounting contacts extending from the microprocessor to the antenna for receiving, storing, and transmitting digitized information. Electromagnetic interference with receiving, storing, or transmitting of digitized information to or from the radio frequency identification tag is controllable by restricting electrical coupling of the microprocessor with the imperforate metal liner to the mounting contacts. When sealed over a container opening to cover a container opening in its entirety, the imperforate metal liner abates migration of fluids between a container interior volume and an exterior of a container.

An assemblage for preparing and validating a smart label including an RFID inlay and selected symbology includes a workstation with a symbology printer and an RFID printer, and a validation station. The validation station includes a digital control device for storing software and housing digital hardware, a symbology reader, an RFID transceiver for reading data encoded on an RFID tag, an encoding and validation chamber, and a computer. The workstation is configured to occupy a minimal area for optimizing the preparation and validation of an associated RFID tag and symbology, and the associated RFID tag and symbology can be contemporaneously printed, encoded with data specific to an item to which the RFID tag and symbology are to be affixed, and validated individually and with respect to one another.

System for associating RFID tag with UPC code, and validating associative encoding of same

The present invention relates to a dynamic RFID device assembly which is able to withstand the additional stresses of using RFID devices in a non-planar arrangement. The invention includes the provision of a protective cap to prevent the fracturing or breakage of chip and antenna connection. The RFID device of the present invention can be included in a housing which may also be flexible thereby adding additional stability to the device.

RFID device having protective cap element and method of making

A radio frequency identification (RFID) device includes: a first substantially inelastic portion (); a second substantially elastic portion (); and an RFID inlay () provisioned to wirelessly communicate with a reader device, wherein the RFID inlay () is at least one of carried on or encapsulated in the first portion (). A compressible foam or mesh () is provided to create an air gap to increase the read range of the RFID inlay ().

Wristband with elastic portion and inelastic portion containing a RFID inlay

An encapsulated device and method for fabricating a radio frequency identification (RFID) device is disclosed herein. The method includes providing a first substrate layer, the first substrate layer including at least one cavity; placing a RFID tag into the cavity; placing a second substrate layer over the first substrate layer, the at least one cavity of the first substrate layer being covered by the second substrate layer; and attaching the second substrate layer to the first substrate layer, the second substrate layer forming a pocket with the first substrate layer.

Encapsulated RFID device for flexible, non-planar or curvilinear surfaces

A radio frequency identification (RFID) tag is disclosed. The RFID tag can include a blank onto which indicia is printed. The blank may further have an RFID chip and antenna disposed thereon. The blank may further be mounted on a carrier web and may also be laminated. The laminated RFID tag may then be disposed into a container and may be used for storing and transmitting information regarding the container or its contents.

RFID tag

A method of making an electronic label, such as an RFID label, includes attaching a circuit, such as an antenna, to a substrate material, applying an adhesive layer to the substrate material over the circuit, adding a release layer over the adhesive layer, forming at least one opening in the release layer to expose at least one portion of the circuit, and connecting a microchip to the at least one portion of the circuit through the at least one opening. The circuit can be an RFID inlay, including an antenna and a microchip, and can be formed of a conductive ink. A portion of the release layer at the at least one microchip has an opening to expose the at least one microchip so that the at least one microchip is free from coverage by the release layer.

Label with electronic components and method of making same

An RF security apparatus includes a covering membrane for overlying at least a portion of an opening in the container. The covering membrane has a sealing portion configured to be bonded to a mouth of the opening. An RF security device is coupled to the covering membrane. The RF security device is configured to emit a predetermined RF signal in response to an RF interrogation signal.

Radio frequency sealing apparatus for a container

A method of making an electronic label, such as an RFID label, includes attaching a circuit, such as an antenna, to a substrate material, applying an adhesive layer to the substrate material over the circuit, adding a release layer over the adhesive layer, forming at least one opening in the release layer to expose at least one portion of the circuit, and connecting a microchip to the at least one portion of the circuit through the at least one opening. The electronic label includes a substrate having on one surface a circuit including at least one microchip, a layer of adhesive covering the circuit and the one surface of the substrate, and a release layer covering the adhesive layer. The circuit can be an RFID inlay, including an antenna and a microchip, and can be formed of a conductive ink. A portion of the release layer at the at least one microchip has an opening to expose the at least one microchip so that the at least one microchip is free from coverage by the release layer.

Growing community of inventors

Sparta, MI, United States of America

Peter C Phaneuf