Intel Corporation

Apple Inc.

Robert J Johnston

Abhishek R Appu

Joydeep Ray

Sang-Hee Lee

Richmond Hicks

Changliang Wang

Narayan Biswal

Satyanarayana Avadhanam

Stanley J Baran

Jong Dae Oh

Atthar H Mohammed

Hiu-Fai R Chan

Nausheen Ansari

Gary Smith

Scott R Janus

Nilesh V Shah

Ya-Ti Peng

Archie Sharma

Arthur Jeremy Runyan

Keith W Rowe

Wen-Fu Kao

Jill MacDonald Boyce

Yi-Jen Chiu

Paul S Diefenbaugh

Seh Kwa

Srikanth Kambhatla

Kunjal ShyamKumar Parikh

Barnan Das

Sumit Mohan

Susanta Bhattacharjee

Colin Whitby-Strevens

Andrew M Volk

Joseph H Salmon

Todd M Witter

Nobuyuki Suzuki

Sachidanandan Sambandan

Tuong P Trieu

Sangeeta Ghangam Manepalli

Srinivasan T Rajappa

Chandra Mohan Konduru

Aswin Padmanabhan

Kiran K Velicheti

Shah Shah

Often when there is a glare on a display screen the user may be able to mitigate the glare by tilting or otherwise moving the screen or changing their viewing position. However, when driving a car there are limited options for overcoming glares on the dashboard, especially when you are driving for a long distance in the same direction. Embodiments are directed to eliminating such glare. Other embodiments are related to mixed reality (MR) and filling in occluded areas.

Glare and occluded view compensation for automotive and other applications

In one embodiment, a processing device includes a plurality of display interfaces, a plurality of display controllers, and display synchronization circuitry. The display interfaces are used to interface with a plurality of display devices, and the display controllers are used to output video frames to the display devices via the display interfaces. Moreover, the display synchronization circuitry includes a clock synchronization interface and a frame synchronization interface. The clock synchronization interface is used to synchronize a clock rate across the display controllers, while the frame synchronization interface is used to synchronize a frame rate across the display controllers.

Hardware architecture for multi-display video synchronization

Technology for a display source device is described. The display source device can receive a frame start indication from a display panel at a start of a frame. The display source device can align a timing of the display source device to a timing of the display panel based on the frame start indication received from the display panel to obtain frame-level synchronization between the display source device and the display panel. The display source device can send one or more frame update regions to the display panel in accordance with the timing of the display source device that is aligned to the timing of the display panel.

Frame-level resynchronization between a display panel and a display source device for full and partial frame updates

Systems, apparatuses and methods may a performance-enhanced computing system comprising a sensor for measuring luminance values corresponding to light focused onto the sensor at a plurality of pixel locations, a memory including a set of instructions, and a processor. The processor executes a set of instructions causing the system to generate a multi-segment tone mapping curve, generate a set of tone mapping values corresponding to the multi-segment tone mapping curve for equally spaced input values between zero and one for storage into a look up table, and process the luminance values using the look up table to apply the tone mapping curve to the luminance values of the pixels.

HDR enhancement with temporal multiplex

Systems, apparatuses and methods may provide for technology to improve user experience when viewing simulated 3D objects on a display. Head and upper-body movements may be tracked and recognized as gestures to alter the displayed viewing angle. The technology provides for a very natural way to look around, under, or over objects.

Viewing angles influenced by head and body movements

Image information is often transmitted from one electronic device to another. Such information is typically encoded and/or compressed to reduce the bandwidth required for transmission and/or to decrease the time necessary for transmission. Embodiments are directed to tagging objects or primitives with attribute tags to facilitate the encoding process. Other embodiments are directed to codecs running on hardware and/or software.

Encoding 3D rendered images by tagging objects

Systems and methods may provide for capturing 360 degree video, and multi-resolution encoding, processing and displaying of the video based on a field of view (FOV) and region of interest (ROI) for a viewer. The ROI may be determined based on eye tracking information (ETI) and the video may be encoded for viewports within the FOV at a high resolution and for other viewports outside the FOV at a lower resolution. ROI in the video may be encoded at a high resolution and areas outside of the ROI may be encoded at a lower resolution. The ETI enables the selective display of one or more warnings based on the gaze of a user to improve the efficiency of the warning. 3D glasses having variable lens may be used to adjust the focal distance of a virtual display to match a virtual distance of an object based on stereo distance cues.

Systems and methods for 360 video capture and display based on eye tracking including gaze based warnings and eye accommodation matching

A display controller and method for performing the same operations are described. In on embodiment, the display controller comprises a spread spectrum clock (SSC) modulator having a first input coupled to receive a non-SSC modulated clock and operable to generate a SSC modulated clock in response to the non-SSC modulated clock, a video data transfer portion coupled to receive the SSC modulated clock and operable to output data for display in response to the SSC modulated clock, and a second portion coupled to receive the non-SSC modulated clock.

Display controller to prevent visual artifacts with spread spectrum clocking

Growing community of inventors

Carmichael, CA, United States of America

Robert J Johnston