Google Inc.

X Development LLC

Other

Loon LLC

Joshua L Weaver

Eric Teller

Richard Wayne Devaul

Clifford L Biffle

Thad Eugene Starner

Anton Valdemar Staaf

Keith Allen Bonawitz

Cliff L Biffle

Michael Cassidy

Alexander James Faaborg

Christian Plagemann

Bradley J Rhodes

Adrian Wong

Edward Allen Keyes

Antonio Bernardo Monteiro Costa

Eliezer Peli

Richard Wayne DeVaul

Christopher Edward Hoover

Clayton Woodward Bavor, Jr

Matthew Thomas Valente

Damien Henry

Robert J Anderson

Hayes Solos Raffle

Glen Murphy

Steven Maxwell Seitz

Carlos Hernandez Esteban

Michael Arthur Simonian

Michael Patrick Johnson

Bo Wu

Yong Zhao

David Robert Gallup

Jon M Wiley

Erik Hubert Dolly Goossens

Murphy Stein

Michael Krainin

Changchang Wu

Husain Bengali

Brad Rhodes

Trevor Claiborne

Antonio Bernarndo Monteiro Costa

Leandro Gracia Gil

Jr Clayton Woodward Bavor

Bradley Rhodes

Anton Staaf

Richard Wa Ne Devaul

Rhodes Bradley James James

Biffle Clifford L L

A flywheel configured to couple to a manual transmission to an unrelated vehicle engine. Also disclosed is a method for retrofitting a manual transmission with an unrelated vehicle engine. Also provided is a flywheel comprising a removable friction region and/or a removable gear portion.

Flywheel

An example technique may include performing, by a virtual reality application provided on a computing device, video rendering at a first video rendering rate based on updating an entire image on a screen of the computing device at a first update rate, determining that a performance of the video rendering is less than a threshold, performing, based on the determining, video rendering at a second video rendering rate by updating a first portion of the image at the first update rate, and by updating a second portion of the image at a second update rate that is less than the first update rate. Another example technique may include shifting, during an eye blinking period, one or both of a left eye image and a right eye image to reduce a disparity between a left viewed object and a right viewed object.

Adjusting video rendering rate of virtual reality content and processing of a stereoscopic image

Example methods and systems for determining correlated movements associated with movements caused by driving a vehicle are provided. In an example, a computer-implemented method includes identifying a threshold number of sets of correlated movements. The method further includes determining that the threshold number of sets of correlated movements is associated with movements caused by driving a vehicle. The method still further includes causing the wearable computing system to select a driving user interface for the wearable computing system.

Determining correlated movements associated with movements caused by driving a vehicle

Video camera rig

Disclosed herein are embodiments of a balloon-based positioning system and method. In one example embodiment, a system includes a group of at least three balloons deployed in the stratosphere and a control system configured for: determining a first set of spatial relationships relating to the group; determining a second set of spatial relationships relating to at least a portion of the group and to a reference point; determining a position of the reference point relative to the earth; using the determined first set, the determined second set, and the determined position of the reference point relative to the earth as a basis for determining a position of a target balloon in the group relative to the earth; and transmitting the determined position of the target balloon relative to the earth.

Balloon-based positioning system and method

Systems and methods are related to a camera rig and generating stereoscopic panoramas from captured images for display in a virtual reality (VR) environment.

Camera rig and stereoscopic image capture

A system and method of operating an audio visual device generating a virtual immersive experience is provided. The system may include an optical system and a display system received in a housing, and an audio output device operably coupled to the display system, the housing being coupled to a frame to be worn by a user. A sensing device may sense at least one of an ambient brightness level or an ambient noise level, and a control system and processor operably coupled to the optical system, the display system, the audio output device and the sensing device may, in response to an external command to transition between the virtual environment and the ambient environment, adjust at least one of a brightness level or a noise level of the virtual environment based on the sensed ambient brightness level and/or the sensed ambient noise level before executing the received external command.

Virtual/augmented reality transition system and method

Embodiments relate to a marketplace for inter-network links between a high-altitude network and a terrestrial data network. An example method may involve a computer-based purchasing agent: (i) determining a demand for inter-network bandwidth between a high-altitude network and a terrestrial data network, (ii) determining one or more offers to provide an inter-network link, wherein the inter-network link provides inter-network bandwidth between the high-altitude network and the terrestrial data network, and wherein each offer is associated with a corresponding client device, (iii) based at least in part on a comparison of: (a) the demand for inter-network bandwidth and (b) the one or more offers to provide an inter-network link, selecting one or more of the offers to provide an inter-network link, and (iv) initiating a process to establish an inter-network link at each client device that corresponds to one of the one or more selected offers.

Valuation of and marketplace for inter-network links between a high-altitude network and terrestrial network

In a general aspect, an apparatus can include a goggle portion having a chassis that is open on a first side, a lens assembly disposed on a second side of the chassis of the goggle portion and a ledge disposed around an interior perimeter of the chassis of the goggle portion. The ledge can be configured to physically support an electronic device inserted in the goggle portion. The apparatus can also include a cover portion having a chassis that is open on a first side and at least partially closed on a second side. The cover portion can be configured to be placed over the goggle portion, such that at least a portion of the goggle portion is disposed within the cover portion and the electronic device is retained between the ledge and an interior surface of the second side of the cover portion.

Integrated mobile device shipping container and virtual reality headset

Methods and systems for intelligently zooming to and capturing a first image of a feature of interest are provided. The feature of interest may be determined based on a first interest criteria. The captured image may be provided to a user, who may indicate a level of interest in the feature of interest. The level of interest may be based upon to store the captured image and capture another image. The level of interest may be a gradient value, or a binary value. The level of interest may be based upon to determine whether to store the captured image, and if so, a resolution at which the captured image is to be stored. The level of interest may also be based upon to determine whether to zoom to and capture a second image of a second feature of interest based on the first interest criteria or a second interest criteria.

Zoom and image capture based on features of interest

A system and method for automatically steering an optical data signal from a transceiver of a base station to a selected mobile endpoint of a plurality of mobile endpoints in a virtual reality or an augmented reality space may include a tracking device that communicates with the base station to establish and track a current location of the selected mobile endpoint. A steering mechanism may steer an optical beam to the determined current location of the selected mobile endpoint and transmit the optical beam to the determined current location of the selected mobile endpoint to transmit an optical data signal to the selected mobile endpoint.

Automatically steered optical wireless communication for mobile devices

A wearable computing device is authenticated using bone conduction. When a user wears the device, a bone conduction speaker and a bone conduction microphone on the device contact the user's head at positions proximate the user's skull. A calibration process is performed by transmitting a signal from the speaker through the skull and receiving a calibration signal at the microphone. An authentication process is subsequently performed by transmitting another signal from the speaker through the skull and an authentication signal is received at the microphone. In the event that frequency response characteristics of the authentication signal match the frequency response characteristics of the calibration signal, the user is authenticated and the device is enabled for user interaction without requiring the user to input any additional data.

Wearable computing device authentication using bone conduction

Growing community of inventors

Avon Lake, OH, United States of America

Joshua L Weaver