Omnivision Technologies, Inc.

Snap Inc.

Omnivision Cdm Optics, Inc.

Cdm Optics, Inc.

Fivefocal LLC

University Technology Corporation

Kenneth Kubala

Edward Raymond Dowski, Jr

Gregory Johnson

Jonathan M Rodriguez, Ii

Alan Eugene Baron

Russell Douglas Patton

Robert H Cormack

Paulo E X Silveira

Robert Matthew Bates

Hans Brandon Wach

Satoru Tachihara

Ilteris Kaan Canberk

David Meisenholder

Mark Anthony Meloni

Samuel Bryson Thompson

David G Fliszar

Amit Singh

Goran Matko Rauker

Adam Douglas Greengard

George C Barnes, Iv

Dennis W Dobbs

Vladislav V Chumachenko

Christopher J Linnen

Inga Tamayo

Michael Hepp

Brandon Carrillo

Miodrag Scepanovic

Brian Schwartz

Kenneth Ashley Macon

Howard E Rhodes

Gary Lynn Duerksen

Ramkumar Narayanswamy

Wade Thomas Cathey, Jr

Regis Fan

Regis S Fan

James He

Donald Combs

John J Mader

Jonathan Rodriguez

Weston Welge

Lindon L Lewis

Amit Ashok

David M Tremblay

Brian Hooker

Joseph C Dagher

Edward R Dowski

Ramakumar Narayanswamy

Andrew Hatch

Jeremy Alan Grata

Paulo E X Silvieri

An electronic eyewear device with a shape memory alloy (SMA) actuator to apply torque to the eyewear temples. The torque presses the eyewear temples against the side of a user's head for a snug and comfortable fit. The SMA actuator allows one size of eyewear frames to fit a larger range of users, thereby reducing the number of sizes required to be manufactured for the electronic eyewear device.

Eyewear with a shape memory alloy actuator

The present application discloses examples of various apparatuses and systems that can be utilized for augmented reality. According to one example, a wearable device that can optionally comprise: a frame configured for wearing by a user; one or more optical elements mounted on the frame; an array having a plurality of light emitting diodes coupled to the one or more optical elements, wherein the one or more optical elements and the array are mounted within a field of view of the user when the frame is worn by the user; and additional onboard electronic components carried by the frame including at least a battery that is configured to provide for electrically powered operation of the array.

Wearable device with in-eye display capability

Eyewear having an optical waveguide communicating infrared light from a remote infrared emitter in the eyewear to an optical output coupler that uniformly illuminates an eye for tracking eye movement of a user. An optical input coupler couples a light beam emitted by the remote infrared emitter into the waveguide. The remote infrared emitter simplifies industrial design and is a single light source. The remote infrared emitter is not in a peripheral vision of a user's eye and improves a cosmetic impact.

Eyewear eye-tracking using optical waveguide

A see-through display including a polarized reflective pinhole mirror display. The pinhole mirror display includes a plurality of tiny switchable polarized mirrors. The respective polarized mirrors individually reflect impinging light from an illuminator, and guide the respective portion of light into a pupil of an eye. A reflective optically powered surface reflects light from the illuminator. Each mirror has a first polarization and reflects a portion of light and produces a picture element (pixel) that forms a virtual image seen by the eye of the user. A user may view the reflected virtual image having the first polarization from the illuminator, as well as the image from the real world via a rear substrate that has a second polarization. Although the mirrors are very small, human eyes can still detect the mirrors if they are not polarized. The mirrors and other components are polarized so that the eye can see the real world filtered with the second polarization, but not the mirrors having a different first polarization.

Polarized reflective pinhole mirror display

An eyewear device including an eye tracker to track a user's eye. The eyewear includes a see-through display for creating an image. The eyewear includes a light source generating a collimated light beam, and the display includes a powered optical element that receives and reflects the light beam. The powered optical element spreads the light beam to uniformly illuminate a user's eye. The powered optical element may include a holographic element.

Eyewear with eye-tracking reflective element

Arrayed imaging systems include an array of detectors formed with a common base and a first array of layered optical elements, each one of the layered optical elements being optically connected with a detector in the array of detectors.

Arrayed imaging systems having improved alignment and associated methods

In one aspect, a method includes providing a lens substrate having an array of lenses. The lens substrate includes an overflow region next to each lens of the array. Each overflow region includes an overflow lens material. The method also includes separating the lens substrate into a plurality of smaller lens substrates. Each of the smaller lens substrates has one of the single lens and the plurality of stacked lenses. Separating the lens substrate into the smaller lens substrates may include removing or substantially removing the overflow regions. In one aspect, the method may be performed as a method of making a miniature camera module. Other methods are also described, as are miniature camera modules.

Miniature wafer-level camera modules

An infrared imaging system is formed by passively aligning two or more lens wafers including a plurality of lenses. The lens wafers may be pre-fabricated lens wafers in which the plurality of lenses are aligned utilizing an alignment jig having a plurality of conduits for distributing bonding material. Alternatively, the lens wafers may be formed of a base material molded around the plurality of optical lenses. The lens wafers may have a variety of alignment features, alignment inserts and/or alignment elements.

Passively aligned imaging optics and method of manufacturing the same

Systems and methods for generating images of an object having a known object velocity include imaging electromagnetic radiation from the object onto a sensor array of an imaging system, adjusting at least one of a shutter rate and a shutter direction of the imaging system in accordance with an image velocity of the image across the sensor array, and sampling output of the sensor array in accordance with the shutter rate and the shutter direction to generate the images. Systems and methods for generating images of an object moving through a scene include a first imaging system generating image data samples of the scene, a post processing system that analyzes the samples to determine when the object is present in the scene, and one or more second imaging systems triggered by the post processing system to generate one or more second image data samples of the object.

Image based systems for detecting information on moving objects

In an embodiment, a method of aligning elements in a manufacturing process includes placing a middle element onto a base element, the base element forming first alignment features, the middle element forming apertures therethrough corresponding to the first alignment features. The method also includes placing second alignment features of an upper element onto the first alignment features such that the first and second alignment features cooperate, through the apertures, to align the upper element with the base element. An infrared lens assembly includes a lens formed of an infrared transmitting material that is disposed within a carrier of a base material, the lens being molded within the carrier with at least one feature that secures the lens to the carrier.

Passively athermalized infrared imaging system and method of manufacturing same

Growing community of inventors

Boulder, CO, United States of America

Kenneth Kubala