Akhan Semiconductor, Inc.

Motorola Mobility LLC

Other

Motorola Corporation

Google Inc.

Google Technology Holdings LLC

Robert D Polak

Adam Khan

Tomohiro Ishikawa

Andrew N Cady

Priya Raman

Zhiming Zhuang

Robert Benjamin Akins

David M Emig

Jim Zhuang

Kenneth Andrew Dean

Ernest Schirmann

John W Kaehler

Sen Yang

Ken K Foo

Kiran Kumar Kovi

Zhiming (Jim) Zhuang

Joseph John Cecala, Iii

Edward George Vardy

Ricky Latella

Tomo Ishikawa

Andrew Cady

Disclosed herein is a transparent glass system that includes an optical grade silicon substrate, and a nanocrystalline diamond film on the silicon substrate, the diamond film deposited using a chemical vapor deposition system having a reactor in which methane, hydrogen and argon source gases are added. Further disclosed is a method of fabricating transparent glass that includes the steps of seeding an optical grade silicon substrate and forming a nanocrystalline diamond film on the silicon substrate using a chemical vapor deposition system having a reactor in which methane, hydrogen and argon source gases are added.

Thin film diamond coating system and method

A system and method for diamond based multilayer antireflective coating for optical windows are provided. An antireflective coatings for optical windows may include an optical grade silicon substrate, a first polycrystalline diamond film on the silicon substrate, a germanium film on the first polycrystalline diamond film, a fused silica film on the germanium film; and a second polycrystalline diamond film on the fused silica film. A method of fabricating a diamond based multilayer antireflective coating may include the steps of cleaning and seeding an optical substrate, forming a first diamond layer on the optical substrate, forming a germanium layer on the first diamond layer, forming a fused silica layer on the germanium layer, cleaning and seeding the germanium layer, and forming a second diamond layer on the germanium layer.

Diamond coated antireflective window system and method

Disclosed herein is system and method for protective diamond coatings. The method may include the steps of cleaning and seeding a substrate, depositing a crystalline diamond layer on the substrate, etching the substrate; and attaching the substrate to protected matter. The crystalline diamond layer may reflect at least 28 percent of electromagnetic energy in a beam having a bandwidth of 800 nanometer to 1 micrometer.

Protective diamond coating system and method

Disclosed herein is a transparent glass system that includes an optical grade silicon substrate, a transparent substrate layer; a titanium dioxide transparent layer, the transparent layer having an index of refraction of 2.35 or greater; and a polycrystalline diamond layer, wherein the transparent layer is between the substrate layer and the polycrystalline diamond layer.

Multilayer diamond display system and method

A broad band mirror system and method, wherein the system includes a mechanical substrate layer, a reflective metal layer on the mechanical substrate level, and a diamond layer, and the method includes the steps of selecting a sacrificial substrate layer, depositing a diamond layer on the substrate layer, smoothing a first surface of the diamond layer, depositing a reflective metal layer on the diamond layer, bonding a mechanical substrate to the diamond layer, removing the sacrificial substrate level, and smoothing a second diamond surface.

Diamond broad band mirror system and method

A system and method for diamond based multilayer antireflective coating for optical windows are provided. An antireflective coatings for optical windows may include an optical grade silicon substrate; a plurality of polycrystalline diamond films, a plurality of germanium films, and a plurality of fused silica films. A method of fabricating a diamond based multilayer antireflective coating may include the steps of cleaning and seeding an optical substrate, forming a plurality of diamond layers above the optical substrate, forming a plurality of germanium layers above the optical substrate; and forming a plurality of fused silica layers above the optical substrate, wherein the reflectance of the antireflective coating is between 0.1 and 3.0 percent for infrared spectrum wavelengths between 1800 and 5000 nanometers.

The present device provides for a universal stylus. The stylus emits a light incident upon a distal metallic object therein causing electrons on the metallic object to be ejected from the metallic object, resulting in a non-uniform electric field near the metallic object. When the metallic object is brought into close proximity of a capacitive touch-screen of a smartphone, tablet, kiosk, computer or other electronic device, the local disruption in the electric field surrounding the touch-screen is registered as a touch, in a similar manner as a human finger normally activates the touch-screen. In an embodiment, the device utilizes a light incident directly upon the electronic device, without the need for the light incident striking a metallic object.

Universal stylus

A user interface () for a portable electronic device () is configured to transition from a first state to a second state to present a plurality of mode-based user actuation targets to a user. The user interface () includes a segmented electro-optical device () configured to open and close shutters, thereby revealing and hiding the user actuation targets. The user interface includes a first polarizer () disposed above the segmented electro-optical device () and a colored reflective polarizer () disposed beneath the segmented electro-optical device. The colored reflective polarizer (), which may include a colored dichroic polarizer () and a reflective polarizer (), causes the user interface () to exhibit a predetermined color.

Colored morphing apparatus for an electronic device

Growing community of inventors

Lindenhurst, IL, United States of America

Robert D Polak