Zebra Technologies Corporation

Zih Corporation

Atlantek, Inc.

Zebra Atlantek, Inc.

Raymond Eugene Maynard

Morgan Hassan Malone

Steve Ting Kei Chow

Thomas R Helma

Angel B Rosales

Michael F St Germain

Edward Anthony Hackett

Christian S Rothwell

Daniel V Carroll

Terrence K Jones

James Roger Morley-Smith

Joseph D Moreira

Ozgur Ozserin

Hannah Marie Legg

Roger Edward Guinee

Michael C Wondolowski

Michael F StGermain

Ellen Thomas

JaeHo Choi

Chad Chaumont

Frieda W Trovela

David G Guillouche

Richard Michael Sadeck

Joseph V Connors

Michael Francis St Germain

Thomas Richard Helma

Keith R Heffley

A printer includes: a body defining a media enclosure configured to receive a media supply; an indicator assembly supported by an outer wall of the body, the indicator assembly including a plurality of substantially contiguous illumination surfaces illuminated by respective ones of a set of lights supported within the body; a controller supported by the body, the controller configured to: (i) obtain an operational status of the printer, (ii) retrieve, from a mapping repository, a set of notification control parameters corresponding to the operational status, and (iii) control the set of lights according to the notification control parameters.

Indicator assembly for media processing devices

A media processing device includes: a hopper for supporting a stack of media units (e.g. cards), the hopper including (i) a gate wall configured to abut leading edges of the media units and (ii) an outlet defined at an end of the gate wall; a pick roller at the outlet for engaging an outer one of the media units in the stack and dispensing the outer media unit from the hopper to a media processing path; the gate wall including a flexible gate at the outlet, the flexible gate configured to deflect toward the media processing path responsive to the outer media unit being driven into the flexible gate by the pick roller, wherein the outer media unit deflects when passing by the flexible gate, permitting the outer media unit to be dispensed from the hopper.

Input handling for media processing devices

A printer configured to contain a media cartridge, wherein the media cartridge includes: a base defining a media chamber and including a lower wall and an opposing upper wall; an identification circuit disposed on the lower wall, the identification circuit configured to engage with an electronic interface of a printer; a ledge on the upper wall of the base, the ledge configured to receive downward pressure from an inner surface of a lid of the printer in a closed position; wherein the identification circuit is aligned with the ledge to receive at least a portion of the downward pressure.

Media cartridge and media processing device engagement mechanisms

A printer includes: a body with a set of interior walls defining a media enclosure configured to receive a media cartridge, and a latch recess in one of the interior walls, including a retaining surface, and a ramp surface; a lid rotatably coupled to the body and movable between open and closed positions; and a latch movably supported by the lid between a locked position and an unlocked position, the latch including: a bias member biasing the latch towards the locked position, a hook surface configured to engage the retaining surface when the lid is closed and the latch is in the locked position, and a cam surface configured via the bias member, when the lid is closed and the latch is released to the unlocked position, to slide against the ramp surface and lift the lid to an intermediate position between the open and closed positions.

Lid subsystem for media processing devices

Media cartridge

A media cartridge includes: a base defining a media chamber and including a lower wall and an opposing upper wall; an identification circuit disposed on the lower wall, the identification circuit configured to engage with an electronic interface of a printer; a ledge on the upper wall of the base, the ledge configured to receive downward pressure from an inner surface of a lid of the printer in a closed position; wherein the identification circuit is aligned with the ledge to receive at least a portion of the downward pressure.

Disclosed is an example of a registration assembly for a media processing device, including a registration surface. The registration assembly including a bias member coupled to the registration surface to bias the registration surface toward the media processing path to apply a force to a media unit. The registration assembly including an activator coupled to a roller, the roller to be driven via contact with the media unit. The activator configured to move the registration surface toward the media processing path into the active position to engage the media unit responsive to rotation of the roller in the first rotational direction. The activator configured to move the registration surface away from the media processing path into an inactive position responsive to rotation of the roller in the second rotational direction.

Media unit redirector assembly for media processing devices

A media processing device includes: a hopper supporting media units (e.g. cards), and a biasing assembly biasing the cards toward a hopper outlet; an input roller for accepting a single card at a hopper slot inlet; a pick roller at the outlet for dispensing a card from the hopper to a media processing path; a motor having an output shaft; a primary drivetrain segment connecting the output shaft with the pick roller; an auxiliary output selector connected to the primary drivetrain segment and switchable between first and second output configurations; first and second auxiliary drivetrain segments connecting the output selector, respectively, with the input roller and a release member for disengaging the biasing assembly; and a selector input movable to switch the output selector between the first output configuration, coupling the primary and first auxiliary drivetrain segments, and the second output configuration, coupling the primary and second auxiliary drivetrain segments.

The present disclosure is directed to a printing assembly that includes an image transfer station and a blower configured to intermittently provide a cooling stream of air to a product being printed upon. The blower may include a centrifugal fan and may have a single plenum providing air to two nozzles. The nozzles may be positioned such that the air targets the edges of the product to facilitate removal of the intermediate transfer media from the targeted areas and reduce the occurrence of flash. The blower may be configured to provide air when the product is expelled from the transfer assembly or while the intermediate transfer media is peeled from the product, but not to provide air when the product is being received by the transfer assembly. The printing assembly may include sensors and control circuitry for detecting the position of the product and controlling the blower accordingly.

Apparatus for reducing flash for thermal transfer printers

The present invention provides a cleaning assembly for use in a media processing device. In various embodiments, the cleaning assembly includes a first roller that at least partially engages a second roller, and a transport path that passes between the first roller and the second roller. There may also be a third collection roller that at least partially engages the second roller. The third collection roller may also engage a drive assembly that may be used to drive a media substrate along the transport path. In one embodiment, the second roller defines a surface adherence that is greater than a surface adherence of the first roller and the third collection roller defines a surface adherence that is greater than the surface adherence of the second roller and the drive assembly. As a result, the present invention provides a cleaning assembly capable of cleaning the drive assembly and opposed surfaces of a media substrate in a single pass.

Dual use cleaning apparatus and method

The present disclosure is directed to a printing assembly incorporating an improved double-sided image transfer station. The present disclosure also describes a product processing apparatus including a cross feed processing architecture. The single-pass double-sided image transfer station and cross feed processing architectures described herein provide numerous advantages over prior art product processing devices. In particular, the single-pass double-sided image transfer station provides for reduced print times, less shuttling of the product during printing, and a less complex, therefore, more reliable printing operation overall. The cross feed architecture provides an efficient processing path for the product through the device and facilitates processing modularization.

Single-pass double-sided image transfer process and system

Growing community of inventors

Westerly, RI, United States of America

Raymond Eugene Maynard