Abstract: In certain embodiments, facilitating communication of routing information includes receiving, at a shim, incoming messages communicating routing information from a first protocol point of one or more protocol points operating according to a routing protocol. The shim belongs to an internal region separate from an external region, and a transport layer is disposed between the shim and the protocol points. The incoming messages are processed and sent to siblings that belong to the internal region. Each sibling implements a state machine for the routing protocol. Outgoing messages are received from a first sibling. The outgoing messages are processed and sent to a second protocol point of the one or more protocol points.

Abstract: In certain embodiments, replicating data elements includes calculating a key value for a data element. The key value is calculated from at least a part of content of the first data element. K computing elements are automatically selected from X computing element nodes according to the key value and a mapping schema. K is a greater than 2 and less than X. The computing element nodes each include computer-readable memory embodied within one or more routers. K replications of the data element are automatically written to the computer-readable memory of the K computing element nodes.

Abstract: In certain embodiments, facilitating communication of routing information includes receiving, at a shim, incoming messages communicating routing information from a first protocol point of one or more protocol points operating according to a routing protocol. The shim belongs to an internal region separate from an external region, and a transport layer is disposed between the shim and the protocol points. The incoming messages are processed and sent to siblings that belong to the internal region. Each sibling implements a state machine for the routing protocol. Outgoing messages are received from a first sibling. The outgoing messages are processed and sent to a second protocol point of the one or more protocol points.

Abstract: In certain embodiments, replicating data elements includes calculating a key value for a data element. The key value is calculated from at least a part of content of the first data element. K computing elements are automatically selected from X computing element nodes according to the key value and a mapping schema. K is a greater than 2 and less than X. The computing element nodes each include computer-readable memory embodied within one or more routers. K replications of the data element are automatically written to the computer-readable memory of the K computing element nodes.

Abstract: A system for monitoring congestion at processors includes queues and a congestion monitor. The queues receive packets, and each queue is associated with a processor. For each queue, the congestion monitor establishes whether a time-averaged occupancy of a queue exceeds a time-averaged occupancy threshold. The congestion monitor provides a notification if the time-averaged occupancy exceeds the time-averaged occupancy threshold.

Abstract: An apparatus for charging in a network environment is provided that includes an access gateway encapsulation/decapsulation element operable to establish one or more packet data protocol (PDP) links on behalf of an end user and to perform encapsulation and decapsulation operations for one or more of the links associated with the end user. The access gateway encapsulation/decapsulation element is further operable to interface with a client services packet gateway (CSPG) that is operable to provide enhanced packet processing for the end user for requested information. The apparatus also includes an access gateway policy element operable to interface with the CSPG. The access gateway encapsulation/decapsulation element and the access gateway policy element cooperate to use one or more inter-module headers in order to coordinate the enhanced packet processing for one or more communication flows associated with the end user.

Abstract: A system for monitoring congestion at processors includes queues and a congestion monitor. The queues receive packets, and each queue is associated with a processor. For each queue, the congestion monitor establishes whether a time-averaged occupancy of a queue exceeds a time-averaged occupancy threshold. The congestion monitor provides a notification if the time-averaged occupancy exceeds the time-averaged occupancy threshold.

Abstract: A system and method for locally determining a fair allocated bandwidth for a network node configured to send and receive packets in an upstream direction and a downstream direction is disclosed. A local allocated bandwidth is allocated for locally generated network packets sent in the downstream direction. A minimum downstream available network bandwidth is determined from information received in the upstream direction. The local allocated bandwidth is adjusted based on the minimum downstream available network bandwidth and the local allocated bandwidth is used to govern whether a class of locally generated network packets are sent in the downstream direction.

Abstract: A system and method for locally determining a fair allocated bandwidth for a network node configured to send and receive packets in an upstream direction and a downstream direction is disclosed. A local allocated bandwidth is allocated for locally generated network packets sent in the downstream direction. A minimum downstream available network bandwidth is determined from information received in the upstream direction. The local allocated bandwidth is adjusted based on the minimum downstream available network bandwidth and the local allocated bandwidth is used to govern whether a class of locally generated network packets are sent in the downstream direction.

Abstract: A system and method for locally determining a fair allocated bandwidth for a network node configured to send and receive packets in an upstream direction and a downstream direction is disclosed. A local allocated bandwidth is allocated for locally generated network packets sent in the downstream direction. A minimum downstream available network bandwidth is determined from information received in the upstream direction. The local allocated bandwidth is adjusted based on the minimum downstream available network bandwidth and the local allocated bandwidth is used to govern whether a class of locally generated network packets are sent in the downstream direction.