Blue Jeans Network, Inc.

Verizon Patent and Licensing Inc.

Blue Jeans Networks, Inc.

Michael Grupenhoff

Emmanuel Weber

Alagu Periyannan

Maulik Shah

Ravi Kalluri

Raghavan Anand

Shacolby Jackson

Oded Gal

Swaroop Kulkarni

Prasad R Mohire

Anand Raghavan

Pierre Seigneurbieux

Krish Ramakrishnan

Satish Malalaganv Ramakrishna

Anil Villait

Lee Y Ho

Brian W Ashford

Umesh S Chandak

Nithin A Prakash

Akshay Kumar Sridharan

Kelly Wong

Ravi Kiran Kalluri

A device may include a processor configured to monitor a user of a video conferencing application. The processor may be further configured to determine that the user corresponds to a passive user based on the monitoring; switch a setting for the video conferencing application for the user from real-time video to video streaming, in response to determining that the user corresponds to a passive user; generate a delay between receiving content via the video conferencing application and playing the content by the video conferencing application, wherein the delay progressively increases from no delay to a particular delay value over a time period, in response to switching the setting for the video conferencing application for the user from real-time video to video streaming; and play the received content using the video conferencing application based on the generated delay.

Systems and methods for adaptively improving the perceived quality of a video conference by passive users

A data stream from an internal endpoint of a video conference participant is received at an enterprise media processing node. The internal endpoint is accessible to the enterprise media processing node behind a firewall on an enterprise network. The received data stream is translated and transcoded into a predefined common communication protocol. A data stream in the common communication protocol is received at an external media processing node using a firewall friendly protocol to traverse the firewall from an external endpoint. The external endpoint communicates with the external media processing node outside the enterprise network. A composite data stream of the received data streams from endpoints within the enterprise network and outside the enterprise network is selectively generated, and sent to the internal endpoint.

Provision of video conferencing services using a micro pop to extend media processing into enterprise networks

Embodiments are described for provision of video conferencing with load balancing. In some embodiments, a protocol connector module receives a media processing request from a client application for the video conference endpoint device and a client application identifier, a profile for the client application is retrieved using the client application identifier, at least one load balancing capability is determined for the client application using the identifier, a load balancing technique is selectively performed based on the at least one load balancing capability, and performance of the client application is logged with the load balancing technique in the profile.

Provision of video conferencing with load balancing

Described herein are methods and systems for assigning a plurality of endpoints of a video conference system to a plurality of encoders located on a server of the video conference system. At least a first group of the endpoints is assigned to first one of the encoders, and at least a second group of the endpoints, the second group disjoint from the first group, is assigned to a second one of the encoders.

Methods and systems for sharing a plurality of encoders between a plurality of endpoints

Embodiments are described for provision of video conferencing with reflector MCUs, transcoder MCUs, and/or combinations thereof. In some embodiments, a protocol connector module of a video conference system receives information on multi-data stream composition capabilities of a client application for a participant endpoint device of a video conference, session state information is received for creation of a composite of received video conference data streams for presentation at the client application, and instructions are selectively sent for handling media processing for each of the received video conference data stream from other participant devices based on the received multi-data stream composition capabilities information of the client application.

Provision of video conferencing services using reflector multipoint control units (MCU) and transcoder MCU combinations

Described herein are methods and systems for interfacing heterogeneous endpoints and web-based media sources in a video conference. Interfacing heterogeneous endpoints can be challenging due to audio/video (A/V) streams being encoded in a format that is proprietary to a media provider of the A/V stream (e.g., format that is proprietary to Skype). To address such a challenge, a client application from the media provider may be installed at a virtual machine, and may be used to decode A/V streams that are encoded in a format proprietary to the media provider. Further, to display content from a web-based media source (e.g., YouTube) in a video conference, a browser may be installed at a virtual machine, and may be used to virtually render a media signal from the web-based media source, such virtually rendered media signal subsequently being captured and presented in a video conference.

Methods and systems for interfacing heterogeneous endpoints and web-based media sources in a video conference

A new approach is proposed that contemplates systems and methods to support the operation of a Virtual Media Room or Virtual Meeting Room (VMR), wherein each VMR can accept from a plurality of participants at different geographic locations a variety of video conferencing feeds of audio and video streams from video conference endpoints. A globally distributed infrastructure that supports operations of the VMR through a plurality of MCUs (Multipoint Control Unit) built from off-the-shelf components instead of custom hardware as media processing nodes, each configured to process the plurality of audio and video streams from the plurality of video conference endpoints in real time. Each single VMR can be implemented and supported across the infrastructure of globally distributed set of servers/media processing nodes co-located in Points of Presence (POPs) for Internet access, wherein such massively distributed architecture can support thousands of simultaneously active VMRs and yet is transparent to the users of the VMRs.

Systems and methods for scalable distributed global infrastructure for real-time multimedia communication

A new approach is proposed that contemplates systems and methods to support the operation of a Virtual Media Room or Virtual Meeting Room (VMR), wherein each VMR can accept from a plurality of participants at different geographic locations a variety of video conferencing feeds of audio and video streams from video conference endpoints. The approach provides various ways for the participants to the video conference to access, control, and interact with each other during the conference for a customized personal experience. A globally distributed infrastructure supports the sharing of the event among the participants at geographically distributed locations through a plurality of MCUs (Multipoint Control Unit), each configured to process the plurality of audio and video streams from the plurality of video conference endpoints in real time.

Systems and methods for novel interactions with participants in videoconference meetings

A new approach is proposed that contemplates systems and methods to support the operation of a Virtual Media Room or Virtual Meeting Room (VMR), wherein each VMR can accept from a plurality of participants at different geographic locations a variety of video conferencing feeds of audio and video streams from video conference endpoints. The approach provides collaborative viewing of an event through the VMR so that the participants at geographically distributed locations are able to simultaneously participate and share the experience of the event together. An initiating participant of the event sharing is further offered with in-meeting management and control over the content to be shared at the event. A globally distributed infrastructure supports the sharing of the event among the participants at geographically distributed locations through a plurality of MCUs (Multipoint Control Unit), each configured to process the plurality of audio and video streams from the plurality of video conference endpoints in real time.

Systems and methods for shared multimedia experiences in virtual videoconference rooms

A new approach is proposed that contemplates systems and methods to support the operation of a Virtual Media Room or Virtual Meeting Room (VMR), wherein each VMR can accept from a plurality of participants at different geographic locations a variety of video conferencing feeds from video conference endpoints that can be either proprietary or standards-based and enable a multi-party video conferencing session among the plurality of participants by composing one composite audio and video stream for each of the participants. Each single VMR can be implemented across an infrastructure of globally distributed set of servers/media processing nodes co-located in Points of Presence (POPs) for Internet access. Each VMR also gives its users a rich set of conferencing and collaboration interaction hitherto not experienced by video conferencing users.

Growing community of inventors

Palo Alto, CA, United States of America

Michael Grupenhoff