Apple Inc.

Hsien-Po Shiang

Christopher M Garrido

Karthick Santhanam

Daniel Ben Pollack

Ming Jin

Erik Vladimir Ortega Gonzalez

Bradley F Patterson

Kevin Arthur Robertson

David L Biderman

Padmavathy Bhooma

Qian Sun

Gurtej Singh G Chandok

Joe S Abuan

Ajoy K Singh

Yan Yang

Thomas P Devanneaux

Vu H Chiem

Vijay Venkataraman

Sree Ram Kodali

Hyeonkuk Jeong

Berkat S Tung

Luciano Miguel Verger

Raghuveer Mallikarjunan

Patrick Miauton

Christoph Paasch

Jose A Lozano Hinojosa

Ryan W Baker

Jingyao Zhang

Yu Xing

Mark M Xue

Chieh Lu

Jin Hyung Park

Sean P Devlin

Vladimir Goupenko

David J Steele

Gabriel Nava Marino

Kevin P McLaughlin

Cahya Adiansyah Masputra

Dazhong Zhang

Anush G Nadathur

Najeeb M Abdulrahiman

Srinivasan Vasudevan

Eric A Allamanche

Srinivas Rama

Yang Yu

Eric L Chien

Anil G Naik

Vinay A Ramaswamy

Deepak Chitlur Lakshman

Xiaoxiao Zheng

Bess C Chan

Brajesh K Dave

Komei Harada

Wenhui Xu

Ashwin Ramesh

Santosh Vamaraju

Erik Vladimir Ortega Gonzales

Suryaprakash Bangalore Rajeevalochana

A device implementing a system for packet loss management may include a memory and at least one processor configured to identify a plurality of categories of packets provided for transmission to an electronic device. The at least one processor may be further configured to determine a respective packet loss value for a respective category of the plurality of categories of packets. The at least one processor may be further configured to identify a particular category of the plurality of categories of packets for which the determined respective packet loss value satisfies a packet loss condition. The at least one processor may be further configured to adjust subsequent transmission of packets in the particular category of packets based at least in part on the packet loss condition being satisfied by the determined respective packet loss value for the particular category of packets.

Per-packet type packet loss management

The embodiments described herein can dynamically adjust timing of network bandwidth estimations by adjusting a target frequency for sending probing sequences to one or more receivers of content. The receivers receive these probing sequences from a transmitter and respond to the transmitter with network bandwidth estimations. In one embodiment, the probing sequences can use the content itself to create the probing sequences. The embodiments can be used in video conferencing applications to control how a transmitter of content can adjust transmissions based upon the network bandwidth estimations. In one embodiment, a policy can be used at a transmitter to begin a video transmission with a high frequency target for sending probing sequences (with, e.g., smaller length probing sequences) and transition to a lower frequency target (with, e.g., longer length probing sequences) when network bandwidth deteriorates and then return to the higher frequency target when the network bandwidth improves.

High frequency probing for network bandwidth estimation using video data in real-time video conference

A method and apparatus of a device that manages a video telephony call is described. In an exemplary embodiment, the device receives a network event from a network service of a device. The device further determines that the network event that is due to a local disruption of a network component of the device. In addition, and in response to the determination, the device restricts a local dynamic control of the video telephony call.

Systems and methods of enhanced adaptability in real-time communications based on events and metrics from network interfaces

A user equipment (UE) configured to establish a multimedia data stream with a further UE, identify a predetermined condition, wherein the predetermined condition indicates a decrease in quality of the multimedia data stream at the further UE and implement a mechanism to mitigate the degradation of the decrease in quality of the multimedia data stream at the further UE.

Mitigating the degradation of quality of a multimedia data stream at a remote endpoint

Techniques are disclosed relating to multiway communications. In some embodiments, a first electronic device initiates a multiway call between a plurality of electronic devices and exchanges a first secret with a first set of electronic devices participating during a first portion of the multiway call, the first secret being used to encrypt traffic between the first set of electronic devices. The first electronic device receives an indication that first set of participating electronic devices has changed and, in response to the indication, exchanges a second secret with a second set of electronic devices participating during a second portion of the multiway call, the second secret being used to encrypt traffic between the second set of participating electronic devices. In some embodiments, the indication identifies a second electronic device as leaving the multiway call, and the second secret is not exchanged with the second electronic device.

Secure multiway calling

A device implementing a system for multipath connection management may include first and second local communication interfaces, and a processor configured to establish a primary connection for communicating between the first local communication interface and a first remote communication interface of an other device, and a secondary connection for communicating between the second local communication interface and a second remote communication interface. The processor may be configured to transmit application and control data over the primary connection and concurrently transmit a copy of control data over the secondary connection. The processor may be configured to determine that a degradation of the quality of the primary connection is attributable to the other device. The processor may be configured to switch the secondary connection to the first local communication interface and the second remote communication interface. The processor may be configured to transmit a copy of the application and control data over the secondary connection.

Multi-path connection management

A device implementing dynamic redundancy may include at least one processor configured to receive, from another device, packet reception data corresponding to video data previously provided for transmission from the device to the other device and determine, based at least in part on the packet reception data, an amount of redundancy to apply to video data provided for transmission to the other device. The at least one processor may be further configured to determine, based at least in part on the amount of redundancy, an encoding scheme for applying the redundancy to the video data. The at least one processor may be further configured to apply the amount of redundancy to the video data based at least in part on the encoding scheme to generate redundant data items and provide the video data and the redundant data items for transmission to the other device.

Dynamic redundancy for multimedia content

A device implementing a system for audio-video conferencing using multiple stream identifiers includes a processor configured to receive, from a sending device, indication of a first content stream and a first stream identifier, and indication of a second content stream and a second stream identifier associated. The first content stream and the second content stream correspond to different bit rates of streaming content. The processor is configured to receive, from a receiving device, a request to subscribe to the second content stream, the request including the second stream identifier, and receive, from the sending device, an indication that the second stream identifier has been associated with the first content stream. The processor is configured to forward, to the receiving device, the first content stream based on the request to subscribe to the second content stream and on the indication that the second stream identifier has been associated with the first content stream.

Multiway audio-video conferencing

An integrated accessory control system can efficiently set up a new media streaming session with one or more accessories. A session identifier for the new session, as well as a destination address and security parameters can be generated. A data object comprising the generated elements can be written to a resource location. Additionally, a second data object comprising the session identifier, a streaming source address, a source identifier, and additional security parameters can be read from the resource location. A third data object comprising the session identifier, a session start command, and codec parameters can then be generated. The third data object can also be written to the resource location. Further, streamed media data conforming to the codec parameters and the security parameters may be received.

Network configurations for integrated accessory control

Growing community of inventors

Mountain View, CA, United States of America

Hsien-Po Shiang