Xerox Corporation

Samsung Electronics Co., Ltd.

Fuji Xerox Co., Ltd.

Lg Philips Lcd Co., Inc.

Lg Display Co., Ltd.

Palo Alto Research Center Inc.

Other

Nan-Xing Hu

Yu Qi

Ah-Mee Hor

Ping Liu

Zoran D Popovic

Hany Maher Aziz

Qi Zhang

Yiliang Wu

Carolyn Patricia Moorlag

Jennifer Alice Coggan

Guiqin Song

Yvan Gagnon

Beng S Ong

Sandra J Gardner

H Bruce Goodbrand

Anthony James Wigglesworth

Cuong Vong

Timothy P Bender

Gordon Sisler

Gregory McGuire

Cheng-Kuo Hsiao

Yu Liu

Edward Graham Zwartz

Vladislav Skorokhod

Johann Junginger

Sarah Jane Vella

John Graham

Brynn Mary Dooley

Paul Farrell Smith

Guerino G Sacripante

Naveen Chopra

T Brian McAneney

Matthew A Heuft

Jin Wu

Richard P N Veregin

Suxia Yang

Marcel Philippe Breton

Yulin Wang

Raj D Patel

Hirofumi Nakamura

Biby Esther Abraham

Michael A Hopper

Roger E Gaynor

Giuseppa Baranyi

Peter Gordon Odell

Valerie M Farrugia

Yuhua Tong

Jennifer Lynne Belelie

James McConnell Duff

Adela Goredema

Kenny-Tuan Dinh

Kurt I Halfyard

Hidemi Nukada

John F Yanus

Karen Ann Moffat

C Geoffrey Allen

Ke Zhou

Hadi K Mahabadi

Kimberly D Nosella

Adrien Pierre Cote

Marko D Saban

Patrick James Finn

Peter Michael Kazmaier

Barkev Keoshkerian

Liang-Bih Lin

Stephan V Drappel

Jeffrey H Banning

James Daniel Mayo

Rina Carlini

Gerald A Domoto

Michelle Chretien

Ashish V Pattekar

Paul Joseph Gerroir

Jengping Lu

Linda L Ferrarese

Walter Mychajlowskij

Rafik O Loutfy

Taketoshi Hoshizaki

Gabriel Iftime

Katsumi Nukada

Linn C Hoover

Eugene Michael Chow

David Joseph Gervasi

Ping Mei

Markus Rudolf Silvestri

Michael Steven Hawkins

Yuning Li

Raymond W Wong

Kentaro Morimitsu

George Amos Gibson

Gregory Lewis Whiting

Makoto Nishimura

Christopher A Wagner

Richard P Veregin

George Liebermann

Nancy Lynn Belknap

Frank Ping-Hay Lee

Jenny Eliyahu

Man-Chung Tam

Marc J Livecchi

An organic polymeric particle including an optional first monomer comprising a hydrophobic monomer; a second monomer comprising two or more vinyl groups; an optional third monomer comprising an amine; and a vinyl siloxane polymerizable monomer.

Silicone copolymer surface additive

An electrochemical device is disclosed, which includes an anode and a cathode. The electrochemical device also includes an extruded electrolyte composition disposed between the anode and the cathode. The cathode and/or the anode of the electrochemical device may be disposed in a stacked geometry or in a lateral x-y plane geometry. The electrolyte composition may include a gel polymer electrolyte. The electrolyte composition is disposed between the anode and the cathode in a laterally non-continuous pattern. A method of producing an electrolyte layer of an electrochemical device is also disclosed.

Biodegradable electrochemical device and methods thereof

Additive manufacturing processes featuring consolidation of thermoplastic particulates may form printed objects in a range of shapes. Inorganic nanoparticles disposed upon the outer surface of the thermoplastic particulates may improve flow performance of the thermoplastic particulates during additive manufacturing, but may be undesirable to incorporate in some printed objects. Polymer nanoparticles may be substituted for inorganic nanoparticles in some instances to address this difficulty and provide other advantages. Particulate compositions suitable for additive manufacturing may comprise: a plurality of thermoplastic particulates comprising a thermoplastic polymer and a plurality of polymer nanoparticles disposed upon an outer surface of the thermoplastic particulates, the polymer nanoparticles comprising a crosslinked fluorinated polymer.

Thermoplastic particulates coated with polymer nanoparticles and methods for production and use thereof

Systems and methods for constructing 3-dimensional (3D) parts are disclosed. A printing system may include a deposition system configured to print a plurality of 2-dimensional (2D) layers onto a plurality of carrier sheets. The printing system also includes a transferring system configured to transfer a 2D layer from a carrier sheet of the plurality of carrier sheets, onto the 3D part. The 3D part may be located on a base substrate. The printing system further includes a feed system configured to provide the plurality of carrier sheets from the deposition system to the transfer system in a successive fashion while maintaining the directionality of printing in the deposition and transferring systems.

Constructing 3-dimensional parts using electrophotography

Additive manufacturing processes, such as powder bed fusion of thermoplastic particulates, may be employed to form printed objects in a range of shapes. It is sometimes desirable to form conductive traces upon the surface of printed objects. Conductive traces and similar features may be introduced during additive manufacturing processes by incorporating a metal precursor in a thermoplastic printing composition, converting a portion of the metal precursor to discontinuous metal islands using laser irradiation, and performing electroless plating. Suitable printing compositions may comprise a plurality of thermoplastic particulates comprising a thermoplastic polymer, a metal precursor admixed with the thermoplastic polymer, and optionally a plurality of nanoparticles disposed upon an outer surface of each of the thermoplastic particulates, wherein the metal precursor is activatable to form metal islands upon exposure to laser irradiation. Melt emulsification may be used to form the thermoplastic particulates.

Particulate compositions comprising a metal precursor for additive manufacturing and methods associated therewith

Additive manufacturing processes, such as fused filament fabrication, may be employed to form printed objects in a range of shapes. It is sometimes desirable to form conductive traces upon the surface of a printed object. Conductive traces and similar features may be introduced in conjunction with fused filament fabrication processes by incorporating a metal precursor in a polymer filament having a filament body comprising a thermoplastic polymer, and forming a printed object from the polymer filament through layer-by-layer deposition, in which the metal precursor remains substantially unconverted to metal while forming the printed object. Suitable polymer filaments compatible with fused filament fabrication may comprise a thermoplastic polymer defining a filament body, and a metal precursor contacting the filament body, in which the metal precursor is activatable to form metal islands upon laser irradiation.

Polymer filaments comprising a metal precursor for additive manufacturing and methods associated therewith

The present teachings according to various embodiments provides a support material for 3D printing. The support material includes poly(alkylene carbonate) having a decomposition temperature of from 100&#xb0; C. to about 300&#xb0; C.

3D printing support structures incorporating sacrificial materials

An example dynamic packaging display includes a plurality of indicator lights, a temperature sensor, an internal clock, a processor, and a power source. The processor is communicatively coupled to the plurality of indicator lights, the temperature sensor, and the internal clock. The processor is to activate one of the plurality of indicator lights in response to an expiration of a period of time tracked by the internal clock or a temperature that is measured by the temperature sensor exceeding a temperature threshold. The power source is to provide power to the plurality of indicator lights, the temperature sensor, the internal clock, and the processor.

Dynamic packaging display with temperature logger

The present teachings include powder coating including a plurality of core/shell particles. Each particle of plurality of core/shell particles has a size of from about 3 microns to about 100 microns. Each particle of the plurality of core/shell particles has a core including a cross-linkable crystalline polyester resin having a melting temperature of less than about 150&#xb0; C. Each particle of the plurality of core/shell particles has a shell including a cross-linkable amorphous polyester resin having a glass transition temperature greater than 40&#xb0; C. Each particle of the plurality of core/shell particles includes a thermal initiator.

Low melt particles for surface finishing of 3D printed objects

A composition including a three-dimensional polymeric printing powder; an organic polymeric additive on at least a portion of an external surface of the three-dimensional polymeric printing powder; wherein the organic polymeric additive is optionally cross-linked; and optionally, an inorganic additive on at least a portion of an external surface of the three-dimensional polymeric printing powder. A process for preparing a three-dimensional polymeric printing powder having an organic polymeric additive disposed thereon. A process for employing the three-dimensional polymeric printing powder including selective laser sintering.

Surface additive for three-dimensional polymeric printing powders

The present teachings according to various embodiments provides a support material for 3D printing. The support material includes poly(alkylene carbonate) having a decomposition temperature of from 100 &#xb0; C. to about 300 &#xb0; C.

UV-curable interlayer compositions are provided. In embodiments, the interlayer composition comprises at least one aliphatic di(meth)acrylate monomer diluent having a dynamic viscosity at 25&#xb0; C. of less than about 100 cps; at least one (meth)acrylate oligomer selected from epoxy (meth)acrylates, polyester (meth)acrylates, polyether (meth)acrylates, urethane (meth)acrylates and combinations thereof, the at least one (meth) acrylate oligomer having a glass transition temperature in the range of from about minus 10&#xb0; C. to about 100&#xb0; C. and a dynamic viscosity at 25&#xb0; C. of less than about 3000 cps; and at least two photoinitiators. Multilayer structures formed using the compositions and related methods are also provided.

UV curable interplayer for electronic printing

Methods of using a toner as a printable adhesive are provided. In embodiments, a method of adhering substrates is provided which comprises disposing a cold pressure fix toner comprising a phase change material on a first substrate via xerography to form an unfused layer of the cold pressure fix toner on the first substrate; placing a second substrate on the unfused layer of the cold pressure fix toner; and subjecting the cold pressure fix toner to a pressure to form a bonded article comprising the first substrate, an adhesive layer formed from the cold pressure fix toner, and the second substrate. Methods of applying an adhesive to a substrate and bonded articles are also provided.

Method of using a toner as a printable adhesive

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Oakville, Canada

Nan-Xing Hu