Xerox Corporation

Palo Alto Research Center Inc.

Canon Kabushiki Kaisha

Seeo, Inc.

Other

Nu-kote International, Inc.

Canon Inc.

Bing R Hsieh

Edward F Grabowski

Satchidanand Mishra

Anthony M Horgan

Richard L Post

Donald C VonHoene

Robert C Yu

Robert C U Yu

Gregory Lewis Whiting

Kathleen M Carmichael

Robert J Gruber

Ian D Morrison

Hany Basam Eitouni

Tse Nga Ng

Yuan Yu

John F Yanus

Eugene Michael Chow

William H Wayman

Armin R Volkel

Huoy-Jen Yuh

Heiko Rommelmann

Alan Richard Kuntz

Joan R Ewing

Joseph Mort

Edward A Domm

Donald S Stanton

Ann M Kazakos

Allen J Thompson

Karen Ann Moffat

Damodar M Pai

Joseph C Mammino

James R Larson

Michael Stephen Roetker

Timothy D Stowe

Scott M Silence

Jengping Lu

Walter Mychajlowskij

Mohit Singh

Ronald F Ziolo

Milan Stolka

Steven C Hart

John A Creatura

T Edwin Freeman

Kathleen M McGrane

Anthony J Paine

Satish R Parikh

Andrew R Melnyk

Xiao-Chang Charles Li

Jian Ping Chen

Gordon E Johnson

Guerino G Sacripante

Santokh Singh Badesha

Chu-Heng Liu

Beng S Ong

Timothy J Fuller

Marcel Philippe Breton

David Allen Mantell

Peter Gordon Odell

Richard P N Veregin

Stephan V Drappel

C Geoffrey Allen

David Joseph Gervasi

Edul N Dalal

Palghat Srinivas Ramesh

Mandakini Kanungo

Dan A Hays

Kazunori Ueno

Eugene A Swain

Steven E Ready

Leon C Williams

John S Chambers

Ying-wei Lin

Geoffrey M T Foley

Jorge Antonio Alvarez

Kurt B Gundlach

Paul C Julien

William M Schwarz

Frank Ping-Hay Lee

Stephen T Avery

Scott J Griffin

Tuan Anh Vo

Aurelian Valeriu Magdalinis

Alan J Werner, Jr

Ralph A Shoemaker

Min-Hong Fu

Matthew Michael Kelly

Dale R Ims

K Derek Henderson

Joseph J Wysocki

Patrick Jun Howe

Kaiser H Wong

Ronald J Koch

Paul Windsor Morehouse, Jr

Sean Emerson Doris

John J Darcy

Bernard A Kelly

James R Combes

Leonard M Carreira

Christine J Tarnawskyj

Michael P O'Horo

A method of forming a charge pattern on a microchip includes depositing a material on the surface of the microchip, and immersing the microchip in a fluid to develop charge in or on the material through interaction with the surrounding fluid.

Microchip charge patterning

A planar microbattery cell array is disclosed. The array includes a number of battery cells arranged parallel to one another on a substrate. The cells include positive electrodes with positive current collectors, negative electrodes with negative current collectors, and solid or gel polymer electrolyte. The current collectors may be arranged in an interdigitated configuration. The novel 3D battery design is suitable for large format batteries and can be manufactured easily and cost-effectively using printing methods.

Printed planar lithium-ion batteries

An organic diode has a substrate, a first conductor layer on the substrate, an organic semiconductor layer on the first conductor layer, and a second conductor layer on the organic substrate layer, wherein one of the conductor layers has an injection enhancement.

Organic Schottky diodes

A structure can include a first layer of a polymer material and a second layer of the polymer material on the first layer, the first and second layers of the polymer material defining a hollow space that was formed by way of a temporary sacrificial structure that was made of a sublimable material.

Forming sacrificial structures using phase-change materials that sublimate

Supercapacitors are important on-chip micro-power sources for microelectronics. In addition to their ultra-fast charge and discharge rate, excellent stability, long cycle life and very high power density, supercapacitors based on graphene have garnered substantial attention in recent years due to their significant improvement in energy density. Disclosed herein are designs for parallel arrays of carbon electrodes that have interdigitated current collectors. Low-cost, high throughput methods of manufacturing that use printing processes are also disclosed.

Printed supercapacitors based on graphene

An imaging member surface contains a swellable elastomer doped with a release oil. This aids in complete transfer of ink to a receiving substrate when a thin film of release oil forms upon the surface during application of pressure at the nip.

Printing plates doped with release oil

An n-type organic thin-film transistor including a substrate, a gate, and a dielectric layer covering the substrate and the gate. A semiconductor-insulator polymer blend layer is disposed on the dielectric layer; A source and a drain are disposed on top of the semiconductor-insulator polymer blend layer.

Organic thin-film transistor

A device, including a substrate, an electronically active component on the substrate, an interface dielectric on the semiconductor, and a relaxor dielectric on the interface dielectric. The relaxor dielectric includes a surfactant that is solid at room temperature.

High-k dielectrics with a low-k interface for solution processed devices

Polymer electrolytes offer increased safety and stability as compared to liquid electrolytes, yet there are a number of new challenges that polymer electrolytes introduce. A novel polymer electrolyte, as disclosed herein, is an ionically-conductive polymer with a backbone that is both highly flexible and highly conductive with high conductivity pendant chains attached, thus increasing the concentration of lithium coordination sites and improving ionic conductivity. Previous strategies for comb-type conductive polymers have focused on attaching either conductive pendant chains to a flexible non-conductive backbone or conductive pendant groups to a marginally flexible conductive backbone.

High ionic conductivity electrolytes from poly(siloxanes-co-ethylene oxide)

The present invention relates generally to electrolyte materials. According to an embodiment, the present invention provides for a solid polymer electrolyte material that has high ionic conductivity and is mechanically robust. An exemplary material can be characterized by a copolymer that includes at least one structural block, such as a vinyl polymer, and at least one ionically conductive block with a siloxane backbone. In various embodiments, the electrolyte can be a diblock copolymer or a triblock copolymer. Many uses are contemplated for the solid polymer electrolyte materials. For example, the novel electrolyte material can be used in Li-based batteries to enable higher energy density, better thermal and environmental stability, lower rates of self-discharge, enhanced safety, lower manufacturing costs, and novel form factors.

Electrochemical devices based on block copolymers

An ink composition useful for digital offset printing applications comprises a colorant and a plurality of curable compounds. The compounds have Hansen solubility parameters as described herein, and the resulting ink composition is both compatible with certain dampening fluids and has certain rheological properties, including a low viscosity.

Ink for digital offset printing applications

Polymer electrolyte materials based on block copolymers

A method of forming a charge pattern on a microchip includes depositing a material on the surface of the microchip, and using an external device to develop charge in the material.

Polymer electrolytes offer increased safety and stability as compared to liquid electrolytes, yet there are a number of new challenges that polymer electrolytes introduce. A polymer electrolyte, as disclosed herein, is a block copolymer that has a block that provides mechanical strength and a novel, ionically-conductive polymer block with a backbone that is both highly flexible and highly conductive with high conductivity pendant chains attached, thus increasing the concentration of lithium coordination sites and improving ionic conductivity. Previous strategies for comb-type conductive polymers have focused on attaching either conductive pendant chains to a flexible non-conductive backbone or conductive pendant groups to a marginally flexible conductive backbone.

High ionic conductivity electrolytes from block copolymers of grafted poly(siloxanes-co-ethylene oxide)

Growing community of inventors

Webster, NY, United States of America

Bing R Hsieh