Xerox Corporation

Michael Brundige

William H Wayman

Roger Gaylord Leighton

Patrick James Walker

David Peter Lomenzo

Srinivasa Rangaraj Deshiikan

Aaron Michael Moore

David B Playfair

Brian Clarence Cyr

Jan Marie Enderle

Matthew Fabrizio

John B Mulley

Mark R James

Matthew M R Storey

Antonio P Sarmiento

The present disclosure provides systems and methods for supplying solid-ink pellets from a container to an image-forming device. The system includes a delivery tube within the container, with one or more openings to receive solid-ink pellets from the container. An agitating structure coupled to the delivery tube disturbs the solid ink pellets. The movement of the delivery tube moves the agitating structure, resulting in disturbing the solid-ink pellets and maintaining flowability of the pellets to the image-forming device.

Container for delivering solid-ink pellets

Apparatus and methods for maintaining flowability of solid-ink pellets when delivering solid-ink pellets from a container to an image-forming apparatus. The apparatus includes an extraction tube inserted into the container and connected to a vacuum source. Suction from the vacuum source impels pellets into the extraction tube through an extraction inlet, but pellet agglomerations may clog the system. Such a clog produces an immediate pressure spike within the extraction tube, an event detected by the clog detector. An actuator, responsive to the clog detector, drives an agitating structure that breaks up agglomerations and restores smooth pellet flow. Alternative embodiments can include devices having only the clog detector or the agitating structure. Alternative implementations of the agitating structure provide means for accomplishing pellet break up. The accompanying method detects the occurrence of a clog and responds by operating the agitating structure to break up agglomerations.

Method and system for clog detection and mitigation in delivering solid-ink pellets to an imaging apparatus

The present disclosure provides apparatus and method for maintaining the flowability of solid-ink pellets in a system for delivering the pellets to an image-forming device. The apparatus includes a container storing the solid-ink pellets, and an extraction assembly for extracting the solid-ink pellets. The extraction assembly includes a tubular housing, extending from the bottom portion of the container, and an auger member rotatably placed within the tubular housing. The tubular housing receives the solid-ink pellets from the container and the auger member rotates to break up the obstructions to pellet flow.

Method and system for delivering solid-ink pellets

A stapler apparatus includes a clamp positioned to receive and stack sheets from a printing device, a support plate comprising a groove directing the clamp along one path of multiple paths, the multiple paths alternately directing the clamp relatively closer to one of multiple staplers. A first biasing member applies a first force to the clamp toward a closed position, and a first extension applies a second force to the clamp toward an open position. A second biasing member applies a third force to the clamp toward the open position.

Stapler eject with alternating offset and position controlled grip

The present disclosure provides systems and methods for supplying solid-ink pellets from a container to a printing apparatus. The solid-ink pellets are held in a collapsible, hermetic bag, which is carried in the container. The bag is partially or fully transparent. A vacuum interface provides an access point to the bag. Further, a perforated nozzle, adapted to engage the vacuum interface, provides airflow within the bag and is configured to apply a suction force to extract solid-ink pellets from the bag.

System and method for extracting solid-ink pellets from a container

An airflow system for a solid-ink melter tank is disclosed, which prevents clogging of drop tube supplying solid ink to the solid-ink melter tank. An inlet may provide airflow as well as solid ink to the melter tank and an outlet maintained at a temperature higher than temperature of the inlet, promotes a convective air current. The inlet may be coaxial with the drop tube or is present as a separate opening in the solid-ink melter tank. The outlet can be taller, externally insulated, and fabricated with a thermally conductive material as compared to the inlet. The heated outlet promotes expulsion of hot air from the solid-ink melter tank and prevents heating of drop tube, which leads to drop tube clogging by partially melting the solid ink.

Growing community of inventors

Rochester, NY, United States of America

Michael Brundige