Kopin Corporation

Google Inc.

The Microoptical Corporation

Other

Myvu Corporation

Hon Hai Precision Industry Co., Ltd.

X Development LLC

The Micropitical Corporation

Mark B Spitzer

Jeffrey Jay Jacobsen

Paul M Zavracky

Brenda D Dingle

Jack P Salerno

Robert W McClelland

Ronald P Gale

John C Fan

Duy-Phach Vu

Noa More Rensing

Anurag Gupta

Behnam Bastani

Carlin Vieri

Paul Daniel Aquilino

Eric Turner

Shambhu Shastry

Xiaoyu Miao

James C Dunphy

Babak Amirparviz

Matthew M Zavracky

Hongqin Shi

Sandeep Kumar Giri

John O Crawford

Martin F Schubert

Joseph M Jacobson

Evan Mark Richards

Adrian Wong

Ozan Cakmakci

John D Perreault

John C C Fan

Eliezer Peli

Stephen Offsey

Jason E Dingle

Gregory H Hunter

Evan Weststrate

Benjamin McLaughlin Gallant

Khoa Nguyen

Mark H Olson

Thomas Zaloum

Babak Amirparviez

A foveated display system includes a rendering device including at least one graphics processing unit (GPU) to render a foveal region and a peripheral region of a first image, wherein the foveal region has a higher resolution than the peripheral region. The system further includes a display device coupled to the rendering device via at least one physical layer. The display device includes a pixel array and a display controller coupled to the pixel array. The display controller includes a scaling component to upscale the first peripheral region to generate a scaled first peripheral region and a blending component to blend the foveal region with the scaled first peripheral region to generate a second image.

Dual-path foveated graphics pipeline

A display system includes a display panel having an input to receive pixel data, the pixel data comprising a plurality of pixel values, an array of pixels partitioned into a foveal region and at least one peripheral region, and an array controller to group pixels in the at least one peripheral region into subsets of at least two pixels and to control each subset using a corresponding single pixel value from the plurality of pixel values. The display system further may include a rendering system to foveally render a display image based on the locations of the foveal region and the at least one peripheral regions, wherein for each row of the display image having pixels within at least one of the peripheral region, a number of pixel values represented in the pixel data for the row is less than a number of pixels in the row.

Foveally-rendered display

Super-resolution displays, and methods of operating the same are disclosed herein. An example disclosed method includes emitting light from a pixel at a first location in a display assembly, and emitting light from the pixel at a second different location in the display assembly.

Super-resolution displays and methods of operating the same

A display device, such as a head mounted device (HMD), displays a virtual scene. The display device includes a motion tracker for detecting rotation of the display device. The display device also includes a processor that is configured to selectively maintain or modify a position of an array of rendered pixels relative to the virtual scene in response to the detected motion. The processor is also configured to upsample the rendered pixels to generate values of display pixels for presentation by the display device. The processor is further configured to translate the values of the display pixels in a rendering plane of the display device based on the detected motion. The translated values of the display pixels can then be presented on a display of the display device.

Phase aligned foveated rendering

A head mounted display (HMD) device may include a housing coupled to a frame, and a display device disposed in the housing. A first lens may be disposed along a first optical axis in the housing, and a second lens may be disposed along a second optical axis in the housing. A divider may be positioned between the first lens and the second lens, with a front end portion of the divider positioned adjacent to the display device. The divider may include display capability so that images displayed on the display device may extend onto the divider. The divider may emit diffused light having chrominance and/or luminance levels corresponding to images displayed on the display device. The divider may reflect diffused light from images displayed on the display device. The divider may transmit diffused light from images displayed on the display device.

Display of binocular overlapping images in a head mounted display

A display system includes a display device and a graphics processing unit (GPU) coupled via at least one physical layer. The display device includes a pixel array having a non-red-green-blue (non-RGB) pixel format. The GPU is configured to render an image in the non-RGB pixel format and provide the rendered image for transmission to the pixel array via the at least one physical layer.

Early sub-pixel rendering

Methods and apparatus for controlling one or more devices using a computing device, such as a wearable computing device, are disclosed. Using a sensor associated with a wearable computing device, one or more inputs are generated at the wearable computing device. As one example, the sensor can be an image capture device, and the inputs can be one or more images from a point of view of a person associated with the computing device. As another example, the sensor can be a motion sensor, and the input can be locations and/or orientations, and a gaze direction can be determined. The computing device can determine an object of interest based on the inputs. A control signal can be generated for the object of interest. The control signal can be transmitted from the computing device.

User interface

A head mounted display (HMD) includes a first display portion included in the HMD, the first display portion having a first pixel density, a second display portion included in the HMD, the second display portion having the first pixel density, a third display portion attached to the HMD, the third display portion having a second pixel density, and at least one image combiner configured to combine two images by reflecting an image projected by the first display portion and the second display portion and allowing an image projected by the third display portion to pass through the at least one image combiner.

Combining a high resolution narrow field display and a mid resolution wide field display

A hybrid optical system for a head wearable display includes a central vision lens and a peripheral vision lens. The central vision lens approximately aligns with a cornea of a user to provide lensing to a central vision of the user when the user is looking straight forward. The peripheral vision lens, different than the central vision lens, provides lensing to an extended field of view that extends angularly beyond the central vision lensed by the central vision lens when the user is looking straight forward. The peripheral vision lens is disposed around the central vision lens. The peripheral vision lens has a co-incident optical center with the central vision lens but the central vision lens is offset from a physical center of the peripheral vision lens.

Hybrid lens system for head wearable display

Embodiments of an apparatus comprising a light guide including a proximal end, a distal end, a display positioned near the proximal end, an ocular measurement camera positioned at or near the proximal end to image ocular measurement radiation, a proximal optical element positioned in the light guide near the proximal end and a distal optical element positioned in the light guide near the distal end. The proximal optical element is optically coupled to the display, the ocular measurement camera and the distal optical element and the distal optical element is optically coupled to the proximal optical element, the ambient input region and an input/output optical element. Other embodiments are disclosed and claimed.

Heads-up display with integrated display and imaging system

An eyepiece includes a first lens body having a first interface side and a second lens body having a second interface side. At least one of the first and second interface sides includes a recess. The first and second lens bodies are mated together along the first and second interface sides to form a cavity at the recess. A lightguide insert is provided that has a shape and a size to fit within the cavity. The lightguide insert includes an in-coupling region to receive display light into the lightguide insert and an out-coupling region to direct the display light out of the lightguide insert through the first lens body.

Lens with lightguide insert for head wearable display

An optical element for a Head Mounted Display ('HMD') includes a lightguide. The lightguide is embedded in the optical element and optically coupled to receive display light and direct the display light in an eyeward direction. The lightguide includes an eyeward hologram, a scene-side hologram, and a propagation region disposed between the eyeward hologram and the scene-side hologram. The eyeward hologram is configured to reflect a wavelength range of the display light that is incident upon the eyeward hologram at a specific angle. The scene-side hologram is configured to reflect the wavelength range of the display light that is incident upon the scene-side hologram at the specific angle.

Imaging lightguide with holographic boundaries

An eyepiece includes a viewing region to emit display light out of the eyepiece along an eye-ward direction, an input end peripherally located from the viewing region and configured to receive the display light into the eyepiece, one or more optical elements positioned to direct the display light received into the eyepiece out of the viewing region along the eye-ward direction, a first side through which ambient scene light is received into the eyepiece, a second side out of which the ambient scene light and the display light are passed along the eye-ward direction, and a photo-chromic coating disposed on the first side and the second side, the photo-chromic coating to darken in the presence of UV light.

Photo-chromic coating for optics

An eyepiece for a head wearable display includes a first lens body having a first interface side in which a first recess is disposed and a second lens body having a second interface side in which a second recess is disposed. The first and second lens bodies are mated together along the first and second interface sides and the first and second recesses are aligned to form a cavity. A lightguide insert is provided that has a shape and a size to fit within the cavity defined by the first and second recesses. The lightguide insert includes an in-coupling region to receive display light into the lightguide insert and an out-coupling region to direct the display light out of the lightguide insert through the first lens body.

Growing community of inventors

Sharon, MA, United States of America

Mark B Spitzer