Other

Corning Incorporated

Nupix, LLC

Astropower, Inc.

Chad Byron Moore

Nicholas Francis Borrelli

Paul Arthur Sachenik

Giacomo James Piazza

Daniel Ralph Neal

Venkata Adiseshaiah Bhagavatula

Prantik Mazumder

Linda Ruth Pinckney

Josef C Lapp

Allen M Barnett

Scott Christopher Pollard

Donald M Trotter, Jr

Robert B Hall

Rajesh Vaddi

James A Rand

Ekaterina Aleksandrovna Kuksenkova

Tian Huang

Ah-Young Park

Mandakini Kanungo

John M Davis

David H Ford

Chukwudi Azubuike Okoro

Kyung Min Kim

Joseph C Checchi

Christopher L Kendall

Marcus E Walker

Sandra R Collins

Joshua Isaac Nielsen

Gregory M Kabel

Jonathan J Schneider

Brian S Brookover

Benjamin J Garbowski

Duncan H Stewart

Gage Owens

Ryan Wallway

Colton Buechel

Melissa VonOhlen

J Glen House

Haley Holcombe

Scott Rea

Andrew Murrell

Ryan Mavity

An article includes a glass or glass-ceramic substrate having a first major surface and a second major surface opposite the first major surface, and at least one via extending through the substrate from the first major surface to the second major surface over an axial length in an axial dimension. The article also includes a metal connector disposed within the via that hermetically seals the via. The article has a helium hermeticity of less than or equal to 1.0&#xd7;10atm-cc/s after 1000 thermal shock cycles, each of the thermal shock cycle comprises cooling the article to a temperature of &#x2212;40&#xb0; C. and heating the article to a temperature of 125&#xb0; C., and the article has a helium hermeticity of less than or equal to 1.0&#xd7;10atm-cc/s after 100 hours of HAST at a temperature of 130&#xb0; C. and a relative humidity of 85%.

Hermetic metallized via with improved reliability

Devices, systems, and methods for administering therapy to restore limb motion to patients in need are disclosed. The system may include a motion capture device to capture an exercise performed by a therapist. The exercise may be retrieved by the patient and used to generate a visual display used to guide the patient through the exercise in real time.

Devices, systems, and methods for administering therapy

A sheet in an electronic display is composed of a substrate containing an array of wire electrodes. The wire electrodes are preferably electrically connected to patterned transparent conductive electrode lines. The wire electrodes are used to carry the bulk of the current. The wire electrodes are capable of being extended away from the substrate and connected directly to the printed circuit board. The transparent conductive electrode (TCE) is used to spread the charge or voltage from the wire electrode across the pixel. The TCE is a patterned film and must be at least 50% transparent, and, for most applications, is preferably over 90% transparent. In most applications, the electroded surface of the electroded sheet has to be flattened. Use of a thin polymer substrate yields a light, flexible, rugged sheet that may be curved, bent or rolled.

Method of forming an electroded sheet

An effective method to create very large electronic displays forms the structure using fiber or tube arrays or electroded sheets containing wire electrodes. The electroded sheets are formed by embedding wire electrodes into the surface of a polymer substrate and electrically connecting a patterned transparent conductive electrode lines to the wires. The wire electrodes are used to carry the bulk of the current and the transparent conductive electrode is used to spread the charge or voltage from the wire electrode across the line of pixels. In most display applications, the electroded surface of the electroded sheet has to be flattened. The electroded sheets may be used to form many different types of displays.

Wire-based flat panel displays

A sheet in an electronic display is composed of a substrate containing an array of wire electrodes. The wire electrodes are preferably electrically connected to patterned transparent conductive electrode lines. The wire electrodes are used to carry the bulk of the current. The wire electrodes are capable of being extended away from the substrate and connected directly to the printed circuit board. The transparent conductive electrode (TCE) is used to spread the charge or voltage from the wire electrode across the pixel. It is a patterned film and must be at least 50% transparent, and, for most applications, is preferably over 90% transparent. In most display applications, the electroded surface of the electroded sheet has to be flattened. Use of a thin polymer substrate yields a light, flexible, rugged sheet that may be curved, bent or rolled.

Electroded polymer substrate with embedded wires for an electronic display

A method of creating very large flat panel displays uses fiber and tubes containing wire electrodes to create the structure in a panel. However, there are several display types, especially those involving an electro-optic material like a liquid crystal, which require the electric field to be spread across the entire surface of the pixel or fiber. A method disclosed herein uses a conductive layer to spread the voltage applied to the wire electrodes in the fiber across the surface of the fiber. The conductive layer may be capacitively or resistively coupled to the wire electrode. In most display applications, a transparent conductive layer is required. The easiest and most cost effective methods to fabricate a transparent conductive layer use a transparent conductive polymer or carbon nanotubes.

Electrode enhancements for fiber-based displays

A double-sided fiber-based display includes a plasma tube array sandwiched between two electro-optic materials. The electro-optic materials are preferably sandwiched between two fiber arrays. The two fiber arrays contain wire electrodes to set the charge in the plasma tubes and are parallel to each other and orthogonal to the plasma tube array. The fibers can be alternatively coated with a transparent conductive coating, such as a carbon nanotube film, to spread the voltage across the surface of the fiber. The plasma tubes contain wire electrodes to ignite a plasma along its entire length. The tube surfaces that are in contact with the electro-optic materials are preferably thin and flat. The fiber and plasma tube wire electrodes are preferably directly connected to a circuit board which houses electronics to address the display.

Double-sided fiber-based displays

The invention relates to an electronic display that combines the optical function of the display and part of the electronic function of the display into an array of individual fibers. The individual fibers contain a lens or optical function and at least one set of electrodes. Containing the lens function and the address electrode in the same fiber assures alignment of each pixel with its representative lens system and allows for the fabrication of very large three-dimensional, direct view displays. The electronic part of the displays can function as a plasma display (PDP), plasma addressed liquid crystal (PALC) display, field emission display (FED), cathode ray tube (CRT), electroluminescent (EL) display or any similar type of display.

Fiber-based displays containing lenses and methods of making same

The present invention uses at least one array of complex-shaped fibers that contain at least one wire electrode running the length of the glass structure to fabricate a fluorescent lamp. At least one of the complex-shaped fibers has a complex cross-section that forms a channel, which supports a plasma gas. The array of fibers can be composed flat to form a fluorescent lamp or in a cylindrical or conical shaped fluorescent lamp.

Fluorescent lamp composed of arrayed glass structures

A full color fiber plasma display device includes two glass plates sandwiched around a top fiber array and a bottom fiber array. The top and bottom fiber arrays are substantially orthogonal and define a structure of the display, with the top fiber array disposed on a side facing towards a viewer. The top fiber array includes identical top fibers, each top fiber including two sustain electrodes located near a surface of the top fiber on a side facing away from the viewer. A thin dielectric layer separates the sustain electrodes from the plasma channel formed by a bottom fiber array. The bottom fiber array includes three alternating bottom fibers, each bottom fiber including a pair of barrier ribs that define the plasma channel, an address electrode located near a surface of the plasma channel, and a phosphor layer coating on the surface of the plasma channel, wherein a luminescent color of the phosphor coating in each of the three alternating bottom fibers represents a subpixel color of the plasma display. Each subpixel is formed by a crossing of one top fiber and one corresponding bottom fiber. The plasma display is hermetically sealed with a glass frit. The sustain and address electrodes are brought out through the glass frit for direct connection to a drive control system.

Drive control system for a fiber-based plasma display

The invention relates to a field emission display constructed using an array of fibers and an orthogonal array of emitter electrodes. Each fiber in the fiber array contains an extraction electrode, spacer, a high voltage electrode and a phosphor layer. The array of emitter electrodes consists of carbon nanotube emitters attached to conductive electrodes. The emitter electrodes are separated using non-conductive fibers. A getter material in the form of a wire is placed within the array of emitter electrodes to maintain a high vacuum within the display.

Fiber-based field emission display

The disclosure teaches using at least two orthogonal arrays of complicated shaped glass rods or very large fibers-like structures (from here in referred to as fibers) with wire electrodes to fabricate plasma displays with plasma cells larger than 0.05 mm in volume. (The volume of a plasma cell is defined by the width of the plasma channel times the height of the plasma channel times the pitch of the pair of sustain electrodes.) To increase the size of the bottom fiber and keep the addressing voltage constant or to reduce the addressing voltage, the address electrode is moved from the bottom of the channel up into the barrier rib. Moving the address electrode up into the barrier rib will reduce the distance, d, between the address electrode and the sustain electrodes, thus increasing the electric field of the addressing pulse. To maintain a more uniform addressing field and build redundancy into the display an additional address electrode can be included in the barrier rib wall on the other side of the plasma channel.

Medium and large pixel multiple strand array structure plasma display

A process for frit-sealing together a panel of a fiber-based information display includes assembling the panel and sealing, after the step of assembling, the panel by forcing a glass frit to flow between the two glass plates that comprise the panel using narrow strips of glass. The glass frit-seals the top and bottom glass plates together and covers the wire electrodes at the end of the fibers to dielectrically isolate them from each other. The process of assembling and frit-sealing the panel is particularly suitable for use in an information display, such as plasma emissive displays, plasma addressed liquid crystal displays, and field emissive displays

Fiber-based flat and curved panel displays

An electronic display is formed using an array of hollow tubes filled with an electrophoretic material sandwiched between two plates. The hollow tubes have either barrier walls or an electrostatic barrier, which restrict the flow of electrophoretic particles within the hollow tubes. The flow of electrophoretic particles over these barriers is controlled using electric fields, which makes it possible to matrix address the electrophoretic displays. Wire electrodes built into the hollow tubes and electrodes on the two plates are used to address the display. The plates are preferably composed of glass, glass-ceramic, polymer/plastic or metal, while the hollow tubes are preferably composed of glass, polymer/plastic or a combination of glass and polymer/plastic. Color is optionally imparted into the display using colored tubes, adding a color coating to the surface of the tubes, or adding the color to the electrophoretic material. Reflectivity within the display is accomplished by using a reflective material to fabricate the tubes, coating the tubes with a reflective material or coating one of the two plates with a reflective material. The display can also function in a transmissive mode by applying an illuminating back to the display.

Reflective electro-optic fiber-based displays with barriers

An array of complex shaped top fibers that each include an address electrode, barrier ribs to form a plasma channel and a phosphor coating on the plasma channel create structure in a plasma display panel. The top fiber array is disposed on the plate facing the viewer and the light generated by the phosphors must penetrate through the top fibers to the viewer. The top fibers can be composed of a colored material associated with the color phosphor layer to add color purity and contrast to the plasma panel. The sustain electrodes are placed on the plate facing away from the viewer and can be included in an array of fibers containing wire sustain electrodes. The sustain electrode surface does not need to be transmissive since the generated light is transmitted through the top fiber array. Therefore, the sustain electrodes can be composed of a reflective metal and cover the majority of the surface of the bottom plate. Covering a large percentage of the bottom plate with sustain electrodes causes the maximum spreading of the electric field and generates the highest plasma efficiency. The sustain electrode bottom plate or array can also be reflective to reflect both the UV light generated by the plasma back toward the phosphor layer and the visible light generated by the phosphor layer back toward the viewer.

Color fiber-based plasma display

Growing community of inventors

Corning, NY, United States of America

Chad Byron Moore