Hewlett-packard Development Company, L.P.

Hewlett-packard Company

Bae Systems, Inc.

John Christopher Rudin

Adrian Derek Geisow

Stephen Christopher Kitson

Peter Mardilovich

Jian-Gang Weng

Andrew Arthur Hunter

Andrew L Van Brocklin

William James Allen

Antonio Cruz-Uribe

Kurt M Ulmer

Qin Liu

Bradley D Chung

Roger Brian Gimson

Timothy Simon Taphouse

Andrew Peter Aitken

David Edward Allport

Frank E Glass

Christopher James P Newton

An adaptive camouflage device that includes at least one non-emissive layer which includes a guest-host liquid crystal (GHLC).

Adaptive camouflage device, system, method and camouflage apparatus

Embodiments of the present invention provide systems and method for adaptively generating a pattern for fabricating semiconductor devices, the method comprising obtaining image data of a surface, and dynamically modifying a pattern to be applied to the surface based on the obtained image data.

Adaptive pattern generation

Various methods and apparatus relating to a multi-level layer () are disclosed.

Liquid crystal display with polymer layer of varying thickness and method of producing such a layer

A light modulation layer of a full-color reflective display (), the light modulation layer including an addressing layer (); a mirror () positioned above the addressing layer (), the mirror () configured to reflect light of a predetermined wavelength band; and an electro-optic layer () positioned above the mirror (), the electro-optic layer () configured to absorb light of a predetermined wavelength band in response to a signal received from a switching device () of the addressing layer ().

Light modulation layer

A method of making a conductive interconnect structure includes the steps of: electrodepositing a metal on a conductive surface () of a carrier () to form a first elongate conductive interconnect (); and electrodepositing a dielectric material () on said conductive interconnect () while the conductive interconnect () is in contact with the conductive surface ().

Conductive interconnects

A method of manufacturing a cell wall assembly for an electro-optic display device with greyscale capability comprises: Other aspects of the invention include the cell wall assembly, a device with greyscale capability, a method of manufacturing the device, and the transfer carrier.

Method of manufacturing a display device with greyscale capability

A transistor device having a metallic source electrode, a metallic drain electrode, a metallic gate electrode and a channel in a deposited semiconductor material, the transistor device comprising: a first layer comprising the metallic gate electrode, a first metal portion of the metallic source electrode and a first metal portion of the metallic drain electrode; a second layer comprising a second metal portion of the metallic source electrode, a second metal portion of the metallic drain electrode, the deposited semiconductor material and dielectric material between the semiconductor material and the metallic gate electrode; and a third layer comprising a substrate, wherein the first, second and third layers are arranged in order such that the second layer is positioned between the first layer and the third layer.

Thin film transistor device with metallic electrodes

A method for forming a high aspect ratio microstructure () comprises: The invention also provides a composite structure () for use in the method.

High aspect ratio microstructures

A crossover is formed by imprinting a channel, by depositing a first conductor in the channel, by anodizing a surface of the first conductor and by electroforming a second conductor across the first conductor.

Crossover

A method of applying to a display substrate color elements and addressing busbars in a defined alignment relative to each other includes: forming said color elements and said busbars on a surface of a transfer carrier; 10 adhering said color elements and said busbars to said display substrate; and removing said transfer carrier.

Applying color elements and busbars to a display substrate

A laminated article comprises a first substrate and a second substrate at least one of which is flexible, the substrates being spaced apart from each other by spacing means and enclosing a layer of a fluid material. At least some of the spacing means comprise wall structures enclosing an adhesive material which adheres the substrates together. Fluid material which is outside the wall structures is isolated from the adhesive material and any fluid material within the wall structures. Another aspect of the invention provides a method of manufacturing the article.

Laminated article  with flexible substrate

A cross-over (); of first () and second () separate elongate conductive interconnects, comprising: a first elongate conductive interconnect (); a first conductive portion () separate from the first elongate conductive interconnect (); a second conductive portion () separate from the first elongate conductive interconnect (); first insulating material () adjacent at least a portion () of the first elongate conductive interconnect (); and a third electro-deposited metal portion () extending adjacent the first insulating material () to interconnect the first () and second () conductive portions, wherein the first (), second () and third () portions are interconnected portions of the second elongate conductive interconnect (); and a substrate, wherein the first insulating material and the third electro-deposited metal portion are positioned between the substrate and the first elongate conductive interconnect.

Cross-over of conductive interconnects and a method of crossing conductive interconnects

A color display device comprises: The color of light transmitted through a pixel is determined by the light transmitted by both the first color filter and the second color filter that intersect at that pixel.

Colour display device and method of manufacture

A method for forming a metal-insulator-metal device includes imprinting at least one first layer to form a first impression, removing a portion of at least one second layer through the first depression to form a recess in the at least one second layer bordered by a first side, a first overhang along the first side, a second opposite side and a second overhang along the second side. The method also includes depositing a first metal in the recess spaced from the first side and the second side and oxidizing the first metal to create a non-linear dielectric.

Metal-insulator-metal device

A projection screen is provided that includes a display surface having a plurality of elements. Each element has an optical property that is responsive to an appropriate applied voltage. The display surface may be configured so that the optical properties of each element may be coordinated with the projected image.

Growing community of inventors

London, United Kingdom

John Christopher Rudin