Checkpoint Systems, Inc.

Lawrence C Appalucci

Gary Thomas Mazoki

Anthony F Piccoli

Thomas J McKeown

Seth Strauser

James Brodzik

Takeshi Matsumoto

Eric Alan Eckstein

Luis Francisco Soler Bonnin

Wei Wu

Peter Lendering

George West

Mark J Rankin

David Lopez Perez

Luis F Ortiz

John H Bowers

Andre Cote

Stanley Tocker

Alan Paul Dutcher

Paul Roberts

Hideaki Imaichi

John Edwin Davies, Jr

John B Mingle

Luis Francisco SolerBonnin

Rolando Roques Martinez

Luis Aquilera

Roger Jay Peirce

Dave McGoldrick

Luis Francisco Bonnin

A permanently deactivatable security tag and method to create a permanently deactivatable security tag to eliminate tag pollution caused by reactivated tags reentering a store premises and setting off false alarms. The security tag includes a frangible conductive portion that fractures due to stress applied on the frangible conductive portion from a hardened substrate located on the tag. The hardened substrate induces stress to the frangible conductive portion located adjacent to the edge of the hardened substrate as the tag is flexed and bent. The fracture of the frangible conductive portion of the tag results in a shifting and/or disabling of the predetermined frequency of the security tag.

Permanently deactivatable security tag

A security device and method to surround merchandise for theft deterrence. The security device includes a cord and housing for a knot in the cord. The cord is pulled from one end about the knot to tighten cord around a product and the cord is pulled from another section to lock cord in place around the product. The device serves to deter breaking in or stealing merchandising product. The security device may also include an additional housing for the cord to pass through. Either housing may include an EAS and/or RFID element for additional security.

Security surround device with cord lock

A security tag that is attached to an article in two stages. In a first stage, a first portion of an attachment clip is coupled to an article, such as but not limited to clothing, to be protected by a manufacturer or assembler. This attachment clip is durable to withstand harsh manufacturing environments. Once the article with the attachment clip is ready for presentation, for example, at a retail establishment, during a second stage, a second portion of the attachment clip is then permanently secured in a locking mechanism of a housing containing a security element therein. The security element may comprise EAS (including AM, RF, EM and microwave), RFID (including LF, HF and UHF), benefit denial (e.g., ink-filled or dye-filled capsules) elements or any combination thereof. Because the security tag is not removed from the article at the point-of-sale, the security element is deactivatable. A preferred embodiment of the security tag uses all non-ferrous components including its locking mechanism. Thus, the security tag combines the qualities of being non-ferrous, light-weight, low cost, deactivatable, secure, visually-deterring, and installable in two stages to the article it is meant to protect.

Two-stage universal security hard tag and method for attaching and detaching

A multi-attach disposable security tag that is attached to an article in two stages. In a first stage, an attachment clip is coupled to an article, such as but not limited to clothing, to be protected by a manufacturer or assembler. This attachment clip is durable to withstand harsh manufacturing environments. Once the article with the attachment clip is ready for presentation, for example, at a retail establishment, during a second stage, the attachment clip is then permanently secured in a locking mechanism of a housing containing a deactivatable security element therein. The security element may comprise EAS (including AM, RF, EM and microwave), RFID (including LF, HF and UHF) elements or any combination thereof. A preferred embodiment of the security tag uses all non-ferrous components including its locking mechanism. Thus, the security tags combine the qualities of being non-ferrous, light-weight, low cost, deactivatable, secure, visually-deterring, and installable in two stages to the article it is meant to protect.

Multi-attach disposable tag

A multi-attach reusable security tag (MARST) that is attached to an article in two stages. In a first stage, an attachment clip is coupled to an article, such as but not limited to clothing, to be protected by a manufacturer or assembler. This attachment clip is durable to withstand harsh manufacturing environments. Once the article with the attachment clip is ready for presentation, for example, at a retail establishment, during a second stage, the attachment clip is then secured in a releasable locking mechanism of a housing containing a security element therein. The security element may comprise EAS (including AM, RF, EM and microwave), RFID (including LF, HF and UHF) elements or any combination thereof. Alternatively, a fluke element can be used to secure the attachment clip to the releasable locking mechanism and wherein this fluke element permits the attachment clip to swivel outside of the housing. A preferred embodiment of the security tag uses all non-ferrous components including its locking mechanism. Thus, the security tags combine the qualities of being non-ferrous, light-weight, low cost, deactivatable, secure, visually-deterring, and installable in two stages to the article it is meant to protect.

Multi-attach reusable tag

A security hard tag, uses an attachment clip to couple to an article, such as but not limited to clothing, to be protected and which can only be released from the article by use of an authorized detacher that is inserted into the security hard tag. The attachment clip may include various types of locking mechanisms on its two ends, one end which is permanently secured within the security hard tag housing and the other end which is releasably secured within the housing. Before being releasably secured within the housing, the one end is inserted through or around a portion of an article, or through a security tag loop attached to the article, and then that end is locked into the housing. The detacher uses a cam, either located on the detacher itself or positioned within the security hard tag housing, to interact with the one end of the attachment clip to release the locked end. The housing also includes a security element that may comprise EAS (including AM, RF, EM and microwave), RFID (including LF, HF and UHF), benefit denial (e.g., ink-filled or dye-filled capsules) or any combination thereof. A preferred embodiment of the security hard tag uses all non-ferrous components including its locking mechanism. The non-ferrous composition of the security hard tag, along with the attachment clip design, forms a security hard tag that is strong and lightweight, thereby providing a low impact presentation of a security hard tag with an article.

Security hard tag with attachment clip and method for attaching and detaching

A microwave-resistant and waterproof security tag for use with food products, especially meat products. The security tag includes a pair of single, open loop conductive traces in between which is disposed a similarly-shaped dielectric layer. This combination is encapsulated within plastic membranes or covers that are sealed at their common edges. The preferred embodiment includes rectangularly-shaped single, open loop conductive traces with rounded corners and with one end of each trace forming a capacitor plate. The width of each trace is at least 1/10 of the length of the security tag.

Method and apparatus for protecting culinary products

The present invention is directed towards a novel procedure and system for making a security tag for an aluminum-pressed, cardboard container. The method employs a system of distancing the tag from the container and a method of calibrating the tag. The tag is then inserted into a specially designed cap and spaced a given distance from the container. The product is sealed and then sold to the consumer.

Method and system for tracking containers having metallic portions, covers for containers having metallic portions, tags for use with container having metallic portions and methods of calibrating such tags

A method of making a resonant frequency tag which resonates at a predetermined frequency. The method involves providing a first conductive pattern having an inductive element and a first land and a second conductive pattern having a second land and a third land which are joined together by a link. The second conductive pattern is overlaid the first conductive pattern such that the second land is positioned over the first land. The third land is in electrical communication with the inductive element of the first conductive pattern. The formed resonant frequency tag is energized to determine if the tag resonates at the predetermined frequency. If the tag resonates properly, the third land is electrically coupled to the inductive element. If it does not, the second conductive pattern is adjusted so that overlapping portions of the first and second lands are changed, altering the capacitance to adjust the resonant tag frequency.

Method of making a resonant frequency tag

A security tag includes a combination of a resonant frequency circuit with an adjacent amplification shield for enhancing output signal amplitude. The amplification shield is located adjacent to the resonant frequency circuit and is preferably in the same or substantially the same plane as the resonant frequency circuit or is in a close, generally parallel plane. In an exemplary embodiment, the resonant frequency circuit includes an inductor electrically coupled to a capacitor. The resonant frequency circuit has a center frequency and is arranged to resonate in response to exposure to electromagnetic energy at or near the center frequency, providing an output signal having an amplitude. The amplification shield is arranged to direct a portion of the electromagnetic energy to the resonant frequency circuit to amplify the amplitude of the output signal from the resonant frequency circuit.

LC resonant circuit with amplification device

A method of making a resonant frequency tag having a predetermined frequency comprises forming a first conductive pattern comprising an inductive element and a first land having a first end connected to an inductive element end, and a second end spaced a predetermined distance from the first end; separately forming a second conductive pattern comprising a second land having a predetermined width and a link element; placing the second conductive pattern proximate the first conductive pattern at a first location wherein the second land overlies a portion of the first land with a dielectric therebetween establishing capacitive element plates having a first capacitance along with the inductive element forming a resonant circuit; measuring the resonant circuit frequency and comparing the measured and predetermined frequencies moving the second land along of the first land length to match the resonant frequency; and securing the second conductive pattern to the first conductive pattern.

Method for controlling resonant tag frequency

A tag and method of making it. The tag includes a first adhesive layer provided in a first predetermined pattern between a surface of a first substrate and a first conductive foil. The first pattern corresponds to a pattern for a first conductive trace, e.g., a portion of a resonant circuit. The first conductive foil is laminated, e.g., adhesively secured, to the surface of the first substrate to form a first conductive layer. A first portion of that layer is shaped, e.g., die-cut, to generally correspond to the first pattern. A second portion of the first conductive layer not corresponding to the first portion is removed, to establish the first conductive trace, with the adhesive layer confined within the boundaries of the first conductive trace. Another conductive trace is secured to the first conductive trace, with a dielectric therebetween, to form a resonant circuit.

Security tag and process for making same

Method of making a series of resonant frequency tags

A security tag for use with an electronic security system which functions within a second frequency range comprises a substantially planar dielectric substrate having first and second sides. A first conductive pattern is provided on the first side of the substrate, the first conductive pattern comprising at least a first inductive element, a first plate of a first capacitive element and a first plate of a second capacitive element. A second conductive pattern located on the second side of the substrate comprises at least a second inductive element, a second plate of the first capacitive element and a second plate of a second capacitive element with the plates of the capacitive elements being generally aligned. The inductive elements and the capacitive elements form a resonant circuit which resonates at a first frequency within a first frequency range which is outside of the second frequency range. A direct electrical connection extends through the substrate to electrically connect the first conductive pattern to the second conductive pattern to thereby continuously maintain both sides of the substrate at substantially same static charge level.

Growing community of inventors

Villanova, PA, United States of America

Lawrence C Appalucci