Snap Inc.

Intel Corporation

Aruba Networks, Inc.

Nutanix, Inc.

Amit Singh

David G Fliszar

Samuel Bryson Thompson

Jonathan M Rodriguez, Ii

Ilteris Kaan Canberk

David Meisenholder

Kenneth Kubala

Robert Matthew Bates

Adam Douglas Greengard

Muthukumar Subramanian

Brandon Carrillo

Kranti Yadhati

Daniel Wagner

Ugur Olgun

Aycan Erentok

Dominik Schnitzer

Paul Beaucourt

Jeffrey Michael DeWall

Seung Jun Lee

Stephen Andrew Steger

Richard Tia

Ricky Koo

Sambhram Sahoo

Vijaya Ram Nandula

Yen Vuong Nishida

Anirban Roy

Jeffrey Michael Dewall

Eyewear having electrochromic lenses for controlling a light transmissive property/tinting for a user's eye and a camera. The electrochromic lenses have an eye region for controlling light transmission to a user's eye, and a separate camera region for controlling light transmission to a camera. Two or more electrochromic lenses are provided to independently control the tinting for each of the user's eye, and two or more cameras. The electrochromic lenses comprise of multiple lens layers forming a single stack. Each layer has an opening configured to receive a fill material, such as a dye, such that the fill material can have different chemistries. The displays may also have different dye chemistries to allow for different tint ranges (wavelengths of light passed).

Eyewear electrochromic lens with multiple tint regions

A method for configuring a digital light projector (DLP) of an augmented reality (AR) display device is described. A light source component of the DLP projector is configured to generate a single red-green-blue color sequence repetition per image frame. The AR display device identifies a color sequence of the light source component of the DLP projector and tracks a motion of the AR display device. The AR display device adjusts an operation of the DLP projector based on the single red-green-blue color sequence repetition, the color sequence of the light source component of the DLP projector, and the motion of the AR display device.

System for using digital light projectors for augmented reality

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

A lightweight stacked optical waveguide using two plastic substrates having nano-structure gratings and a single glass substrate sandwiched between them. The nano-structure gratings face each other, and are each encapsulated within the optical waveguide. The two plastic substrates are each adhesively secured to the central glass substrate rather than to each other to provide sufficient securing strength and precisely establish and maintain an air gap between the substrates. The thickness of the plastic substrates and the glass substrate are selected such that the stacked optical waveguide is lightweight, but also has sufficient drop performance. The stacked optical waveguide can be efficiently manufactured as the adhesive bonds a plastic substrate to a glass substrate.

Waveguide with 2-layer stack-up

Eyewear including a see-through display including an optical waveguide module and one or more integrated antennas. In one example, the antenna is disposed on one of the non-active waveguide substrates, which non-active waveguide substrates are used as encapsulants to protect the waveguide active layer from environmental factors and do not have an active optical function in the waveguide operation. In another example, the antenna is disposed on one of the active waveguide substrate surfaces opposite another active waveguide substrate. As a result, there is a large lee-way available in patterning desired antenna shapes, length, and area on these surfaces using optically transparent, high conductivity materials. The antenna is not subject to some design constraints and compromises.

Antenna implementation embedded in optical waveguide module

Methods of fabricating a waveguide module are presented that include the steps of providing a glass substrate having first and second substantially planar parallel surfaces and comprising one or more cells in a first arrangement and singulating the glass substrate to produce one or more singulated cells. Singulated cells are treated with a chemical agent, laminated to a carrier substrate, processed, and delaminated from the carrier wafer and optionally subjected to further processing.

Optical waveguide fabrication process

Examples described herein include distributed computing systems having a system traffic analyzer. The system traffic analyzer may receive sampled packets sent to a network from a number virtual machines hosted by computing nodes in the distributed computing system. The packets may be sampled, for example, by network flow monitors in hypervisors of the computing nodes. The system traffic analyzer may request co-location of virtual machines having greater than a threshold amount of traffic between them. The request for co-location may result in the requested virtual machines being hosted on a same computing node, which may in some examples conserve network bandwidth.

System traffic analyzers to request co-location of virtual machines in frequent communication

Apparatuses and methods associated with an antenna formed on a transparent substrate are disclosed herein. In embodiments, an electronic device may include a substrate, wherein at least a first region of a plurality of regions of the substrate is transparent; and a plurality of layers formed on the substrate, the plurality of layers including: a first transparent layer formed over the first region; and a second metal layer formed over a second region of the plurality of regions of the substrate, wherein the second metal layer comprises an antenna. Other embodiments may be disclosed or claimed.

Antenna on transparent substrate

Methods and apparatus are disclosed for integrating a near field communication antenna with a display pixel activation line. The near field communication antenna can facilitate wireless communication between an electronic device and other devices that are nearby.

Methods and apparatus for integrating near field communication antenna with display pixel activation line

A system with at least one device including a hardware processor, performs the steps of receiving, by the system, a packet from a second system to be transmitted to a third system, forwarding, by the system to the third system, the packet received from the second system; modifying a portion of the packet to obtain a modified packet that falsely identifies a fourth system as a source of the modified packet, and transmitting, by the system to the third system, the modified packet identifying the fourth system as the source of the modified packet.

Testing by simulation using variations of real-time traffic

Growing community of inventors

Santa Clara, CA, United States of America

Amit Singh