Xerox Corporation

Ali Rafic Dergham

Glenn David Batchelor

Erwin Ruiz

Christopher Douglas Atwood

Douglas K Herrmann

Mark A Adiletta

Linn C Hoover

Derek Albert Bryl

Francisco Zirilli

Jorge Mario Rodriguez

Roger Gaylord Leighton

Rachel Lynn Tanchak

Richard A Kalb

Chu-Heng Liu

Paul J McConville

Jason Mathew LeFevre

Seemit Praharaj

Carlos Manuel Terrero

Timothy Patrick Foley

David Mark Kerxhalli

Roberto A Irizarry

Patrick Jun Howe

Thomas C Hollar

Karl B Ayash

John H Steele

Randall E Kaufman

Armando J Rivera

Anthony Salvatore Condello

Palghat Srinivas Ramesh

Peter John Knausdorf

Robert Alan Clark

Joseph C Sheflin

Jonathan Byron Hunter

Richard Alan Campbell

John Patrick Baker

Brian M Balthasar

Robert Jian Zhang

Megan Zielenski

Paul F Brown, Ii

Timothy M Davis

Emmett James Spence

David N Redden

Andrew Charles LaRocca

Senthil Sivaraman

Glenn A Bennett

Francesco Zirilli

Peter Johan Nystrom

William H Wayman

Michael Jon Levy

Jack T LeStrange

David A VanKouwenberg

Gary Daniel Redding

Jack Thomas Lestrange

Todd Kenneth Preston

John T Newell

Kareem N Tawil

Daniel Raymond Knopp

Dennis M Ankrom

Karen D Reid

William A Novak

Chad E LaBarge

Lisa D Mantilla

David J Breed

Christopher G Donnelly

Scott M Dailey

Daniel R Knopp

A printing system comprises a print fluid deposition assembly, a media transport device, and an air flow control system. The print fluid deposition assembly comprises a carrier plate and a printhead arranged to eject a print fluid through an opening of the carrier plate to a deposition region. The media transport device holds a print medium against the movable support surface by vacuum suction and transports the print medium through the deposition region. The air flow control system comprises an air supply unit comprising air flow guide structure extending into the opening of the carrier plate between the carrier plate and the printhead to flow air through the opening. The air flow control system controls the air supply unit to selectively flow the air based on a location of a print medium relative to the printhead.

Devices, systems, and methods for supplying makeup air through openings in carrier plates of printing systems via air guide structures extending into the openings

A printing system comprises a print fluid deposition assembly, a media transport device, and an air flow control system. The print fluid deposition assembly comprises a carrier plate and a printhead arranged to eject a print fluid through an opening of the carrier plate to a deposition region. The media transport device comprises a movable support surface to transport a print medium along a process direction through the deposition region, the media transport device holding the print medium against the movable support surface by vacuum suction. The air flow control system is arranged to selectively flow air through the opening of the carrier plate between the carrier plate and the printhead based on a location of a print medium transported by the media transport device relative to the printhead.

Devices, systems, and methods for supplying makeup air through openings in carrier plates of printing system

An MFD is disclosed. For example, the MFD includes a processor and a non-transitory computer-readable medium storing a plurality of instructions. The instructions when executed by the processor cause the processor to perform operations that include receiving an email, determining that a user wants to establish a connection based on the email, generating a reply email to the user, wherein the reply email includes an executable file that automatically configures an endpoint device of the user to establish the connection, transmitting the reply email to the user, and establishing the connection to the endpoint device of the user in response to execution of the executable file by the endpoint device of the user.

Method and apparatus to connect to network multi-function devices via email

A method for determining a temperature of an object includes contacting the object with a first electrical conductor. A difference in electronegativity between the object and the first electrical conductor is greater than a predetermined value. The method also includes contacting the object or a substrate on which the object is positioned with a second electrical conductor. A difference in electronegativity between the object or the substrate and the second electrical conductor is less than the predetermined value. The method also includes connecting the first and second electrical conductors together. The method also includes measuring the temperature of the object using the first and second electrical conductors. The first and second electrical conductors form at least a portion of a thermocouple.

System and method for determining a temperature differential between portions of an object printed by a 3D printer

A method operates a three-dimensional (3D) metal object manufacturing system to maintain a temperature of an uppermost layer of a 3D metal object being formed within a temperature range conducive for bonding between the uppermost layer and a next layer to be formed. A controller of the system compares a temperature of the uppermost layer with at least a low end temperature of the temperature range and operates an electrical resistance switching network using 3D model data to provide electrical power selectively to heating elements in a modular heater to heat the 3D metal object being formed when the temperature indicated by the signal from the sensor is less than the predetermined temperature.

Method and system for operating a modular heater to improve layer bonding in a metal drop ejecting three-dimensional (3D) object printer

A system for determining a temperature of an object includes a three-dimensional (3D) printer configured to successively deposit a first layer of material, a second layer of material, and a third layer of material to form the object. The 3D printer is configured to form a recess in the second layer of material. The material is a metal. The system also includes a temperature sensor configured to be positioned at least partially with the recess and to have the third layer deposited thereon. The temperature sensor is configured to measure a temperature of the first layer of material, the second layer of material, the third layer of material, or a combination thereof.

System and method for determining a temperature of an object

A three-dimensional printing system, the system comprising a build platform and a printhead for depositing a conductive print material at deposition contact points of a build surface on the build platform. A heating system comprises at least one induction coil for preheating the deposition contact points of the build surface.

Three-dimensional printing system and method of three-dimensional printing

An object printed by a three-dimensional (3D) printer includes a plurality of layers of material printed by the 3D printer. The layers of material bond together to form the object as the layers of material cool and solidify after being printed by the 3D printer. The object also includes a temperature sensor placed in contact with one or more of the layers when the layers of material are being printed by the 3D printer. The temperature sensor remains in contact with the object after the layers of material cool and solidify to form the object. The temperature sensor is configured to measure a temperature of the object after the layers of material cool and solidify to form the object.

Object printed by a 3D printer and a method for determining the temperature of the object

A three-dimensional printing system includes a build platform comprising a build surface. The printing system also includes an enclosure system having a side portion extending entirely around the build surface, a top plate portion that abuts the side portion, and a bottom portion. The side portion, the top plate portion and the bottom portion form an enclosed space surrounding the build surface. The top plate portion is moveable so as to adjust a volume of the enclosed space. A 3D printer printhead is disposed adjacent to the enclosure system for depositing a print material onto the build surface. The printing system also includes a heating system for heating the enclosed space.

A system for controlling curl in sheets passing beneath a camera includes applying a thin layer of high velocity air to a curved baffle positioned beneath the camera. The high velocity air layer, which will have a tendency to follow the curved baffle (Coanda effect), will divert sheets (Bernoulli effect) towards the curved baffle. By positioning the curved baffle along the media paper path and by applying a uniform air stream to it, a lower pressure area will be created. This will flatten the trajectory of the sheets and thereby remove curl before the sheets pass the camera.

Apparatus for controlling sheet flatness under an imaging system robust to media curl

An apparatus for controlling cross curl in corners of sheets between in-line transports includes a curved baffle placed between the two transports. A thin layer of high velocity air is applied to the curved baffle only at lead edge corner regions of the sheets. The high velocity air layer, which will have a tendency to follow the curved baffle (Coanda effect), will divert corners of the sheets (Bernoulli effect) towards the curved baffle. By positioning a curved baffle between the two transports and by applying a uniform air stream to it, a lower pressure area will be created. This will flatten the corners of the sheets and ensure passage between downstream baffles and acquisition by a downstream transport.

System for preventing paper jams between subsystem transitions

An apparatus for controlling curl in sheets between two transports includes a curved baffle placed between the two transports. A thin layer of high velocity air is applied to the curved baffle. The high velocity air layer, which will have a tendency to follow the curved baffle (Coanda effect), will divert sheets (Bernoulli effect) towards the curved baffle. By positioning the curved baffle between the two transports and by applying a uniform air stream to it, a lower pressure area will be created. This will flatten the trajectory of the sheets and ensure acquisition by the downstream transport.

Media handling between modules robust to paper curl

A cap is positioned to contact a printhead when the printhead is not ejecting liquid ink. The cap and the printhead create a sealed space adjacent printhead nozzles when contacting each other. A flexible blade is positioned to contact the printhead when the printhead is not in contact with the cap. The flexible blade is adapted to fold over to spread a liquid solution on the nozzles in a first direction, and the flexible blade is adapted to remove excess amounts of the liquid solution from the nozzles in a second direction. A humidifier is connected to the cap and adapted to supply a moisture form of the liquid solution to the sealed space. A moisture sensor is connected to the cap. The humidifier is adapted to vary supply of the moisture to the sealed space based on the amount of moisture detected by the moisture sensor.

Cap and application devices stabilizing ink in nozzles of inkjet printheads

Devices include one or more inkjet printheads, a reusable jetting sheet that is adjacent to nozzles of the printheads, support structures (e.g., drive rollers) contacting the sheet, and a cleaning station contacting the sheet. The reusable jetting sheet includes an opening, that is at least as large as the sets of nozzles, and a jetting area spaced from the opening. The support structures are adapted to move the reusable jetting sheet relative to the sets of nozzles. The inkjet printheads are adapted to eject ink from at least some of the nozzles, through the opening, to print media when the opening is positioned adjacent to the sets of nozzles, to print on print media. The inkjet printhead is further adapted to eject ink from at least some of the nozzles to the jetting area when the jetting area is positioned adjacent to the sets of nozzles to perform maintenance jetting.

Inkjet reusable jetting sheet with cleaning station

A cooling system comprising of a coolant manifold, a heat sink configured to fit in the coolant manifold, a plurality of cooling fins formed in the heat sink, and a coolant configured to flow through the coolant manifold to the heat sink. Diamond shaped pin fins associated with the heat sink create a series of divergent fluid paths for the cooling fluid that helps to create turbulence and improved heat transfer.

System and method for cooling digital mirror devices

Growing community of inventors

Fairport, NY, United States of America

Ali Rafic Dergham