Zebra Technologies Corporation

Temptime Corporation

John Olson

Mohannad Abdo

Eric W Liberato

Brian S Huffman

Gene A Hofer

Marielle K Smith

John Newport

James J O'Hagan

Frederick Robert Grabiner

Nisa A Khan

Steven J Vandercar

Michael S Millman

Disclosed is a thermal transfer ribbon for use with a media processing device. The thermal transfer ribbon includes a carrier layer and a transfer layer operatively coupled to the carrier layer. The transfer layer includes an environmental indicator material encapsulated in a plurality of microcapsules. The plurality of microcapsules prevent the environmental indicator material from producing an observable effect in response to exposure to a predetermined environmental condition. The environmental indicator material is released from the plurality of microcapsules in response to the plurality of microcapsules being ruptured. After the environmental indicator material is released and exposed to the predetermined environmental condition, the environmental indicator material produces the observable effect. The observable effect results from a change in the environmental indicator material from an original state to a second state in response to the predetermined environmental condition.

Ribbon for use in producing printer activatable indicators

An activatable print medium is disclosed. The print medium includes a first reactive component, a second reactive component, wherein the first and second reactive components are configured to react to initiate a state change of the activatable print medium when exposed to each other and a barrier that is initially in an unactivated form and configured to transition to an activated form when activated by an application of at least one of an activation heat and an activation pressure wherein after the barrier is activated, but not before, the activatable print medium is configured so that the first and second reactive components interact in response to a predetermined environmental stimulus or interact over time at a rate dependent on an environmental stimulus, thereby providing an indication of the cumulative historical exposure of the activatable print medium to the environmental stimulus.

Activatable print medium

Activatable indicator platforms for integrated circuits using microencapsulation are disclosed herein. An example activatable indicator platform includes an RFID tag, including an antenna; an integrated circuit, electrically connected to the antenna; an electrical loop having an open state and a closed state, the electrical loop electrically connected to the integrated circuit; an activatable environmental exposure indicator included as a portion of the electrical loop, the indicator having a conductive state and a nonconductive state, such that the electrical loop is in the closed state when the activatable environmental exposure indicator is in the conductive state and the electrical loop is in the open state when the activatable environmental exposure indicator is in the nonconductive state.

Activatable indicator platform with RFID focus using microencapsulation

An excess heat exposure indicator and methods for making the same are disclosed. The excess heat exposure indicator includes a print media substrate comprising an indicator region, a data region, at least one first thermochromic composition is provided on the substrate within the indicator region of the substrate, a second thermochromic composition is provided on the substrate within the data region, the second thermochromic composition configured to change color state from a third color state to a fourth color state when heated above a second temperature threshold, the indicator region is configured to be selectively treated with heat above the first temperature threshold to place a first portion of the indicator region in the second color state, different than the first color state, forming a visible indicia, the visible indicia configured to change appearance when the indicator region is subsequently exposed to a temperature above the first temperature threshold.

Customizable supplies for high temperature exposure monitoring

A media processing device includes: a media processing head; a ribbon transport assembly configured to transport ribbon along a ribbon path between a ribbon dispenser and the media processing head; a graphite applicator disposed along the ribbon path, the graphite applicator configured to apply a combination of graphite and graphene to an active side of the ribbon via frictional engagement with the ribbon; and a media transport assembly configured to transport media from a media supply to the media processing head for transfer of at least a portion of the combination of graphite and graphene from the active side of the ribbon onto the media via application of at least one of heat and pressure at the media processing head.

Media processing devices for applying printable conductive elements

Disclosed herein are delayed reaction threshold temperature indicators and methods of making and activating the same, the delayed reaction threshold temperature indicators including a first substrate, first and second layers, and a housing secured to the substrate. The first layer includes a first reactant and an optional meltable polymer, and the second layer includes a meltable polymer and a second reactant. The meltable polymer is configured to keep the first and second reactants from interacting with each other. When exposed to temperatures at and/or above a desired threshold for a period of time, the meltable polymer melts and allows the first and second reactants to come into contact with each other, thereby producing a visual change in appearance.

Activatable temperature indicator with time delay

An ascending/descending indicator can include a sealed housing that contains a deep eutectic solvent (DES) within the housing. The DES can include two or more components and is configured to exhibit a first characteristic when at a first temperature and to assume a second characteristic when exposed to a second temperature and to substantially maintain the second characteristic even when again exposed to the first temperature.

Growing community of inventors

Dayton, NJ, United States of America

John Olson