Telefonaktiebolaget Lm Ericsson (Publ)

Avesha, Inc.

F5 Networks, Inc.

Azuki Systems, Inc.

Ericsson Ab

Chin-Cheng Wu

Raj Nair

Kevin J Ma

Daniel Biagini

Prabhudev Navali

Robert Hickey

Sudhir Halbhavi

Paul Tweedale

Tung Ng

Michael Shearer

Rob Hickey

David G Porter

Daniel J Dietterich

Jc Ferguson

Michael J Homberg

IChang Lin

Michael A Berger

Benjamin E McCann

Thomas J Teixeira

Jonathan C Nicklin

Bryan T Whitmore

Prasad Dorbala

Suchi Raman

Craig S Rasmussen

Michael J Soha

Leonard F Wisniewski

Eric Peterson

Robert T Curley

A method is provided for managing over-the-top delivery of content through a plurality of content delivery networks (CDN). The method provided works transparently with standard HTTP servers supporting an initial request for content from a client to a first preferred CDN. If the first CDN does not have the content, the method includes provisions for the first CDN to acquire the content from a second CDN, or for the client to request the content from a second CDN directly. A system is also specified for implementing a client and server infrastructure in accordance with the provisions of the method.

Method and system for federated over-the-top content delivery

A distributed computing system has one or more clusters each including compute nodes connected by a cluster network and executing microservices in respective containers organized into pods. The system includes application slice components (routers, slice gateways) distributed among the clusters to define and operate application slices each providing application slice services for respective sets of pods distributed among the clusters. Each slice gateway provides an interface between local pods of the application slice and remote pods of the application slice on a respective different cluster. Each slice is associated with namespaces, network policies and resource quotas for the applications onboarded on the slice. The slice routers and slice gateways for a given application slice form a respective slice-specific overlay network providing cross-cluster network services including service discovery and traffic forwarding with isolation from other application slices that co-reside on the clusters.

Distributed computing system employing application slice overlay networks

A networked system for real-time computer-aided augmentation of a live input video stream includes an endpoint system configured and operative to handle the live input video stream and a live augmented video stream and to provide service access to a video augmentation service for the computer-aided augmentation of the live input video stream. The system further includes a backend system providing service orchestration to orchestrate use and operation of the video augmentation service, and an edge inference system coupled to the endpoint system and to the backend system, the edge inference system being configured and co-operative with the endpoint system to provide the video augmentation service on the live input video stream and thereby generate the live augmented video stream, based on the service orchestration by the backend system.

Networked system for real-time computer-aided augmentation of live input video stream

A software-defined media platform having one or more media processing units that may be dynamically instantiated, interconnected and configured according to changes in demand, resource availability, and other parameters affecting system performance relative to demand. In one example media processing method, a source media stream may be received via multicast or unicast. The source media stream may be processed into one or more levels of work product segments having different media characteristics by a plurality of transcoding processing units, as needed. One or more levels of work product segments, or the source media stream, may be packaged (e.g., including resegmenting) into final work product segments having select media characteristics, which may be uploaded to a cloud storage unit for delivery to end users.

Software-defined media platform

A technique performs load balancing self-adjustment within an application environment. The technique involves, while nodes of the application environment load balance traffic among clusters that provide services for an application in accordance with a first load balancing configuration, sensing application environment metrics. The technique further involves performing a self-adjustment operation that generates a second load balancing configuration based on the application environment metrics, the second load balancing configuration being different from the first load balancing configuration. The technique further involves deploying the second load balancing configuration among the nodes to enable the nodes to load balance the traffic among the clusters that provide the services for the application in accordance with second load balancing configuration in place of the first load balancing configuration.

Performing load balancing self adjustment within an application environment

Techniques manage cluster resources within an application environment. The techniques involve identifying a group of cluster resources from a plurality of cluster resources of the application environment, the plurality of cluster resources being constructed and arranged to provide a plurality of services. The techniques further involve forming an application slice having the group of cluster resources. The techniques further involve deploying the application slice to provide services. Certain techniques provide a platform that allows operators to build application slices (or application overlays) that are a way of grouping application pods (or containers) based on one or more organizing principles such as velocity of deployment, security, governance, etc.

Providing a set of application slices within an application environment

In a system for streaming data over a network, the type and rate of streaming are automatically varied based on available network bandwidth. Video media is transcoded into different bit rate encodings that are divided into segment files. Segments are sent from a network-aware adaptive streaming (NAAS) server and reassembled and presented to a media player at a client device. The system may download additional segment files ahead of time from multiple NAAS servers to increase throughput. A playback status ('bookmark') may be maintained to keep track of what the user has viewed and to allow the user to continue playing from where the user left off. The user may continue watching from the bookmark point on the same device or on a different device.

System and method for network aware adaptive streaming for nomadic endpoints

Methods and apparatus provide an adaptive load balancer that presents a virtual data system to client computer systems. The virtual data system provides access to an aggregated set of data, such as files or web service objects, available from a plurality of server data systems respectively operating within a plurality of server computer systems. The adaptive load balancer receives a client data access transaction from a client computer system that specifies a data access operation to be performed relative to the virtual data system presented to the client computer system. The adaptive load balancer processes the client data access transaction in relation to metadata associated with the virtual data system to provide access to the file or service object within a server computer system, or to access the metadata. The adaptive load balancer can work in conjunction with other adaptive load balancers to dynamically adjust to demands for access to data by replicating and migrating data such as files or service objects as needed between the server computer systems to accommodate data access demands.

Method and apparatus for adaptive services networking

Growing community of inventors

Carlisle, MA, United States of America

Chin-Cheng Wu