A unified distributed real-time quota limitation system limits use of shared networked resources in distributed networked environment (DNE). A dispatch center determines an amount of shared resources available to client devices in the DNE. The dispatch center determines an amount of the shared resources to allocate for use by the clients, and sends the clients one or more policies having a resource usage quota that limits the amount of the resource that the client can use. When a client receives a request to perform a task that requires a shared resource, before running the task, the client determines its own usage of the resource and terminates the task if running the task will exceed the quota limit of the shared resource.

Techniques of content delivery for HTML content based on a predefined template generated at a content serving service are provided. A request for HTML content is received and a member ID that matches the request is determined to identify a set of campaigns. For each identified campaign, a cache is read to identify respective HTML content. Upon determining that one of the campaigns has corresponding HTML content stored in the cache and that was already generated at the content serving service, a URL is generated based on the request. The HTML content and the URL are sent to a client device. For a campaign that does not have stored HTML content, HTML content for that campaign is generated using a template with a predefined format and content that is specific to the campaign. The template has formatting parameters for the content. The generated HTML content is stored in the cache.

Disclosed are systems, methods, and non-transitory computer-readable media for bandwidth allocation in multi-track media communication that can include receiving a set of inbound media tracks; resolving track priority configuration for the set of media tracks; resolving media constraints that are at least partially derived from properties of the set of media tracks; producing bandwidth allocation configuration based on at least the track priority configuration and media constraints; and allocating bandwidth to outbound media tracks within a communication link to a client device wherein bandwidth of the outbound media tracks is allocated based on the bandwidth allocation configuration.

A wireless communication circuit for operating over a wireless local area network (WLAN) in which real time application (RTA) traffic and non-RTA traffic coexist and are distinguished from one another. RTA queues are created to enqueue RTA packets while non-RTA packets are pushed into non-RTA queues. Management frames containing RTA session parameters and RTA queue setting information are exchanged between stations. Channel time is allocated to RTA queues for transmitting packets, during which non-RTA queues are not allowed to access the channel. Stations determine which RTA queues to enqueue an RTA packet into based on RTA queue classification information of its RTA session.

A computer implemented availability checking system and method is provided for use with a service provider configured to communicate with one or more client devices and with a content provider. The system includes a computer storage device operative to store an availability data store comprising a list of a plurality of potential endpoints of the service provider and a corresponding plurality of availability information for the plurality of potential endpoints. The plurality of potential endpoints is distributed across a plurality of resource cache components. The system further includes an availability query component operative to transmit a plurality of queries to the plurality of potential endpoints and to receive a plurality of responses from the plurality of potential endpoints. The system further includes an availability analysis component operative to analyze the plurality of responses, to generate the plurality of availability information, and to update the availability data store.

A disclosed computer-implemented method may include receiving, via a monitoring infrastructure that monitors an operational state of a networking infrastructure, data representative of the operational state of the networking infrastructure during a period of time. The networking infrastructure may include (1) a plurality of data centers, and (2) at least one point-of-presence (POP) edge node. The method may also include (1) accessing data representative of a set of predefined policies associated with the networking infrastructure, and (2) based on the data representative of the operational state (a) determining a set of edge load factors associated with the edge node, and (b) generating, via a linear solver and further based the set of edge load factors associated with the edge node and the set of predefined policies associated with the networking infrastructure, a routing table for the POP edge node. Various other methods, systems, and computer-readable media are also disclosed.

Methods and systems for managing network resources enabling network services over a network and for managing maintenance of network resources. The method comprises determining a desired performance level for the network services, the desired performance level being associated with service metrics that establish compliance with a service level agreement; accessing internal data relating to operations of the network and external data not relating to operations of the network; generating a prediction of a network service pattern based on the desired performance level of the network services, the internal data and the external data; identifying a decision scenario for orchestration of the network resources, the decision scenario establishing a configuration of the network resources, the decision scenario being generated based on a correlation of the prediction of the network service pattern and availability of the network resources; and causing to adapt the network resources based on the decision scenario.

A session management function (SMF) receives, from an access and mobility management function (AMF), a first request message. The first request message is for a time sensitive network (TSN) bridge. The SMF selects, based on the first request message, a user plane function (UPF) that supports TSN functionality. The SMF sends, to the UPF, a second request message to configure the UPF for the TSN bridge. The second request message comprises an identifier of the TSN bridge. The second request message comprises an identifier of a port associated with TSN packet transmission.

A system for servicing streaming media requests. The system includes stream director nodes and intelligent stream engine nodes, such as permanent storage devices with network interfaces. The stream director node receives a streaming media request and enqueues the request until all resources on a path from the stream engine node having the media object being requested to the user/client system have been reserved. Once reserved, the enqueued request is then serviced by requesting the stream object from the stream engine node, which then transfers the requested stream object between the stream engine node and the user/client system over the prepared path without involving the stream director node. Upon completion, the prepared path is torn down. In one embodiment the prepared path is a Label Switched Path. A provision is made for balancing the load among the stream engine nodes by duplicating stream objects on other stream engine nodes.

A link aggregation load balancing apparatus includes a flow monitoring circuit and an initial allocation circuit. The flow monitoring circuit is arranged to monitor flows of a plurality of member ports belonging to a link aggregation group, for performing classification upon the plurality of member ports to generate a member port classification result. The initial allocation circuit is arranged to refer to the member port classification result for selecting a target member port from the plurality of member ports to act as a forward port of a data flow.