Eastman-kodak Company

Carestream Health, Inc.

Roger Stanley Kerr

Timothy John Tredwell

Seung-Ho Baek

Dean L Smith

John D Gentzke

Edward P Furlani

William L DeMarco

David Howard Levy

Kurt Michael Sanger

Edmund J Sobresky

Svetlana Reznik

Seung H Baek

Ronald S Cok

David D Kessler

Syamal K Ghosh

Badhri Narayan

Robert W Spurr

Douglas A Hons

Larry R Gartz

Robert P Bourdelais

Yonglin Xie

Cheryl J Kaminsky

Qing Yang

Thomas A Mackin

Eric Julius Donaldson

Robert W Kulpinski

Mark A Harland

Jeffrey T Carey

Sarat K Mohapatra

David F Dalfonso

Diane M Carroll-Yacoby

Yongtaek Hong

Bradley C DeCook

David A Niemeyer

Chang-Fang Hsu

Christopher L DuMont

Gary R Kenny

Wesley H Bacon

Peter M Stwertka

Richard L O'Toole

Hugh A Cunningham

James T Murray

Arokia Nathan

Rongguang Liang

Shelby Forrester Nelson

Douglass L Blanding

Jeremy M Grace

Paul W Jones

Timothy John Wojcik

John Yorkston

Sujatha Ramanujan

Mark D Bedzyk

Robert E Zeman

Kwok-Leung Yip

Jinquan Xu

Denis Striakhilev

Steven R Lippold

Gregory N Heiler

Yuriy Vygranenko

Donald F Grube

Scott L Auer

Martin L Slade

Dennis W Heizyk

James K Lucey

Stanley J Thomas

Paul R Switzer

Jackson C S Lai

Kwok-leung Yip

Jeffrey Todd Carey

Yuriy Carestream Health Inc Vygranenko

Arokia Carestream Health Inc Nathan

Jackson C Lai

A method for forming an electronic device provides a carrier formed from a composite material comprising a plastic binder and an embedded material. A substrate material is attached to the carrier. The substrate is processed to form the electronic device thereon. The substrate is then detached from the carrier to yield the resultant electronic device.

Method for forming an electronic device on a flexible substrate supported by a detachable carrier

A projection radiographic imaging apparatus includes a scintillator and an imaging array. The imaging array includes a plurality of pixels formed directly on a side of the scintillator. Each of the pixels includes at least one photosensor and at least one readout element.

Radiographic detector formed on scintillator

A printhead includes a jetting module that forms liquid drops travelling along a first path. A deflection mechanism causes selected liquid drops formed by the jetting module to deviate from the first path and begin travelling along a second path. A catcher includes a stationary porous surface. A liquid film flows over the stationary porous surface of the catcher. The catcher is positioned relative to the first path such that the liquid drops travelling along one of the first path and the second path contact the liquid film.

Liquid film moving over porous catcher surface

A method for forming an electronic device on a flexible substrate conditions at least one surface of a carrier to form at least one retaining feature on the surface for retaining a flexible substrate. The flexible substrate is provided by deposition or lamination f one or more layers of substrate material onto the carrier. A portion of the substrate is processed to form the electronic device on the processed portion of the substrate. At least the processed portion of the substrate is released from the carrier to provide the flexible substrate having electronic device formed thereon. An electronic device is formed on a flexible substrate in accordance with the method.

Substrate formed on carrier having retaining features and resultant electronic device

A method for forming an electronic device on a flexible substrate conditions a surface of the flexible substrate to increase its malleability and to provide a conditioned substrate surface. A master surface is impressed against the conditioned substrate surface. The master surface is then released from the conditioned substrate surface, thereby forming a circuit-side surface on the substrate. The electronic device is then formed on the circuit-side surface. The substrate may be supported on a carrier during the method.

Method for conditioning a substrate surface for forming an electronic device thereon and resultant device

A delivery device for thin-film material deposition has at least first, second, and third inlet ports for receiving a common supply for a first, a second and a third gaseous material, respectively. Each of the first, second, and third elongated emissive channels allow gaseous fluid communication with one of corresponding first, second, and third inlet ports. The delivery device can be formed from apertured plates, superposed to define a network of interconnecting supply chambers and directing channels for routing each of the gaseous materials from its corresponding inlet port to a corresponding plurality of elongated emissive channels. The delivery device comprises a diffusing channel formed by a relief pattern between facing plates. Also disclosed is a process for thin film deposition. Finally, more generally, a flow diffuser and a corresponding method of diffusing flow is disclosed.

Delivery device for deposition

A process for depositing a thin film material on a substrate is disclosed, comprising simultaneously directing a series of gas flows from the output face of a delivery head of a thin film deposition system toward the surface of a substrate, and wherein the series of gas flows comprises at least a first reactive gaseous material, an inert purge gas, and a second reactive gaseous material, wherein the first reactive gaseous material is capable of reacting with a substrate surface treated with the second reactive gaseous material, wherein one or more of the gas flows provides a pressure that at least contributes to the separation of the surface of the substrate from the face of the delivery head. A system capable of carrying out such a process is also disclosed.

Deposition system for thin film formation

A method of printing provides liquid drops travelling along a first path using a jetting module. A catcher including a stationary porous surface is also provided. A liquid film is caused to flow over the stationary porous surface of the catcher using a liquid source. Selected liquid drops are caused to deviate from the first path and begin travelling along a second path using a deflection mechanism. The liquid drops travelling along one of the first path and the second path contact the liquid film.

Printing using liquid film porous catcher surface

A printhead includes a jetting module that forms liquid drops travelling along a first path. A deflection mechanism causes selected liquid drops formed by the jetting module to deviate from the first path and begin travelling along a second path. A moving liquid curtain is positioned relative to the first path such that the liquid drops travelling along one of the first path and the second path contact the liquid curtain in a drop interception region of the liquid curtain. A liquid collection device is positioned to collect the liquid curtain downstream from the drop interception region.

Moving liquid curtain catcher

Exemplary embodiments provide methods and systems for assembling electronic devices, such as integrated circuit (IC) chips, by selectively and scalably embedding or seating IC elements onto/into a receiving substrate, such as a chip substrate. Preparing of the chip substrate can be performed by depositing or patterning an activatable thermal barrier material on a surface of the substrate. The IC chips are secured on the prepared substrate by activating the thermal barrier material between the chip substrate and IC chips. Securing can include softening of the chip substrate with the activated thermal barrier material to an amount suitable for embedding the IC chips. Securing can also include adhesively bonding the IC chips to the substrate with the activated thermal barrier material in the case of a non-pliable substrate.

Thermal barrier layer for integrated circuit manufacture

A method of manufacturing an electronic device () provides a substrate () that has a plastic material and has a metallic coating on one surface. A portion of the metallic coating is etched to form a patterned metallic coating. A particulate material () is embedded in at least one surface of the substrate. A layer of thin-film semiconductor material is deposited onto the substrate ().

Flexible substrate with electronic devices and traces

An apparatus for maintaining the alignment or positional relationship between at least two coating modules in an ALD system, the apparatus comprising a plurality of coating modules in a coating section, at least a first bar and a second bar for supporting the coating modules, and at least a first bar mounting structure and a second bar mounting structure for supporting the bars, wherein each of the coating modules are supported by the first bar and the second bar, and wherein the combination of the at least two coating modules and the first bar and the second bar define a coating section profile for the output faces of the coating modules. Also disclosed is a process for making such apparatus.

A catcher includes a housing and a drop contact structure. The housing defines a liquid removal conduit. The drop contact structure includes a moveable surface that delivers collected liquid drops to the liquid removal conduit of the housing.

Rotating coanda catcher

Growing community of inventors

Brockport, NY, United States of America

Roger Stanley Kerr