Apple Inc.

Other

Apple Ine.

Arboretum Systems, Inc.

Aram M Lindahl

Anthony Joseph Guetta

Joseph M Williams

Sorin V Dusan

Baptiste Pierre Paquier

Richard Michael Powell

Andrew Bart Hodge

Anthony Michael Fadell

Stephen Paul Zadesky

Vasu Iyengar

Patrick L Coffman

James David Batson

Gregory R Chapman

Andrew E Rostaing

Meriko Borogove

Muthya K Girish

Policarpo Bonilla Wood

Sean Anthony Ramprashad

Benjamin A Rottler

Bryan J James

Arvindh Krishnaswamy

Alexander Kanaris

Harvey D Thornburg

Kelvin C Chiu

Steve Schell

Jesse William Boettcher

Robert D Watson

David Gerard Conroy

Esge Brandt Andersen

Barry J Corlett

Shawn A Ellis

Bruce C Po

Morgan Woodson

Phillip A Kamp

Jeffery Theodore Lee

Saurabh Gupta

Gints Valdis Klimanis

Andrew P Bright

Wang Chun Leung

Allen Paul Haughay, Jr

Fatos Myftari

Neil David Warren

Martin E Johnson

Wei Ey Li

Kourtny Minh Hicks

Justin Derry Crosby

Moo Young Kim

Joshua D Atkins

Tomlinson M Holman

William E Bull

Douglas J Button

Michael Ignazio Ingrassia, Jr

Yang Lu

Eric A Allamanche

Tarun Pruthi

Ronald Nadim Isaac

Andrew M Grignon

Niel David Warren

Nicholas J Bryan

Adam E Kriegel

Ashrith Deshpande

Girault W Jones

Sarang S Ranade

Phillip George Tamchina

Allen P Haughay

David T Yeh

David J Rempel

Dubravko Biruski

Kisun You

Dmitriy B Solomonov

Kavitha Srinivasan

Hannes Breitschaedel

Vincent Y Wong

Pulkit Desai

Todd P Marco

Dan Timis

Alex Kanaris

Sina Zamani

Chris Townsend

Muthy K Girish

Frank Zening Li

Martin Ünsal

Wendy Goh

David G Conroy

Barry Corlett

Niel D Warren

Disclosed is a hierarchical spatial resolution codec that adaptively adjusts the representations of immersive audio content as the target bandwidth for delivering the audio content changes. The audio content may be represented by an adaptive number of content types such as channels/objects, higher-order ambisonics (HOA), and encoded by adaptive spatial coding techniques to support the target bitrate of a transmission channel or user. Adaptive spatial coding techniques may include adaptive channel/object spatial encoding techniques to generate an adaptive number of channels/objects, and adaptive HOA spatial encoding or HOA compression techniques to generate an adaptive order of the HOA. The adaptation may be a function of the target bitrate that is associated with a desired quality, and an analysis that determines the priority of the channels, objects, and HOA. High priority channels/objects may be encoded into a high quality bit-stream while low priority channels/objects may be converted and encoded as HOA.

Hierarchical spatial resolution codec

An electronic device may capture a voice command from a user. The electronic device may store contextual information about the state of the electronic device when the voice command is received. The electronic device may transmit the voice command and the contextual information to computing equipment such as a desktop computer or a remote server. The computing equipment may perform a speech recognition operation on the voice command and may process the contextual information. The computing equipment may respond to the voice command. The computing equipment may also transmit information to the electronic device that allows the electronic device to respond to the voice command.

Electronic devices with voice command and contextual data processing capabilities

An audio system and method of using the audio system to augment spatial audio rendition is described. The audio system can include a device to receive user inputs designating positions on an augmented reality view of a listening environment. Sound source icons can be presented in the augmented reality view at the designated positions. The sound source icons can visually represent sound sources at locations in the listening environment that correspond to, but are different than, the positions. One or more processors of the audio system can apply head-related transfer functions, which correspond to the locations in the listening environment, to audio input signals to generate binaural audio signals. The audio system can include a headset that uses the binaural audio signals to render spatialized audio localizing sounds to the locations in the listening environment. Other aspects are also described and claimed.

Audio system and method of augmenting spatial audio rendition

Implementations of the subject technology provide systems and methods for determining whether to interrupt a user of an audio device that is operating in a noise-cancelling mode of operation. For example, the user may desire to be interrupted by one or more pre-designated contacts that are identified at an associated electronic device as interrupt-authorized contacts, or by a person who speaks a designated keyword to the user.

Interrupt for noise-cancelling audio devices

A system and method is described for determining whether a loudspeaker device has relocated, tilted, rotated, or changed environment such that one or more parameters for driving the loudspeaker may be modified and/or a complete reconfiguration of the loudspeaker system may be performed. In one embodiment, the system may include a set of sensors. The sensors provide readings that are analyzed to determine 1) whether the loudspeaker has moved since a previous analysis and/or 2) a distance of movement and/or a degree change in orientation of the loudspeaker since the previous analysis. Upon determining the level of movement is below a threshold value, the system adjusts previous parameters used to drive one or more of the loudspeakers. By adjusting previous parameters instead of performing a complete recalibration, the system provides a more efficient technique for ensuring that the loudspeakers continue to produce accurate sound for the listener.

Method to determine loudspeaker change of placement

Aspects of the subject technology relate to a device including a microphone, a filter and a processor. The filter receives an audio signal including ambient noise and a voice of a user of the device from the microphone. At least a portion of ambient noise is filtered from the audio signal. The processor determines a level of the ambient noise in the received audio signal and dynamically adjusts a gain applied to the filtered audio signal based on the level of the ambient noise.

Self-voice adaptation

An automatic speech recognition (ASR) triggering system, and a method of providing an ASR trigger signal, is described. The ASR triggering system can include a microphone to generate an acoustic signal representing an acoustic vibration and an accelerometer worn in an ear canal of a user to generate a non-acoustic signal representing a bone conduction vibration. A processor of the ASR triggering system can receive an acoustic trigger signal based on the acoustic signal and a non-acoustic trigger signal based on the non-acoustic signal, and combine the trigger signals to gate an ASR trigger signal. For example, the ASR trigger signal may be provided to an ASR server only when the trigger signals are simultaneously asserted. Other embodiments are also described and claimed.

Automatic speech recognition triggering system

A media processing system and device with improved power usage characteristics, improved audio functionality and improved media security is provided. Embodiments of the media processing system include an audio processing subsystem that operates independently of the host processor for long periods of time, allowing the host processor to enter a low power state while the audio data is being processed. Other aspects of the media processing system provide for enhanced audio effects such as mixing stored audio samples into real-time telephone audio. Still other aspects of the media processing system provide for improved media security due to the isolation of decrypted audio data from the host processor.

Media processing method and device

A method for automatically producing a video and audio mix at a first portable electronic device. The method receives a request to capture video and audio, performs a network discovery process to find a second portable electronic device, and sends a message to the second device indicating when to start recording audio for a double system recording session. The method initiates the recording session, such that both devices record concurrently. In response to the first device stopping the recording of audio and sound, signaling the second device to stop recording for the identified recording session. In response to the first device receiving a first audio track from the second device that contains an audio signal recorded during the recording session, automatically generating a mix of video and audio, such that one of the audio signals from the first and second tracks is ducked relative to the other.

Automatic processing of double-system recording

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Menlo Park, CA, United States of America

Aram M Lindahl