Abstract: A method, computer program product, and computing system for receiving rate control information for an existing dataflow on a first gateway of a first wired communication trunk within a communication platform. The rate control information for the existing dataflow is provided from the first gateway of the first wired communication trunk to a second gateway of a second wired communication trunk within the communication platform.

Abstract: A method, computer program product, and computing system for receiving return data of a dataflow on a first gateway of a first wired communication trunk within a communication platform. If corresponding forward data of the dataflow was not received on the first gateway, a determination is made concerning which gateway within the communication platform received the corresponding forward data, thus defining a second gateway of a second wired communication trunk within the communication platform. The return data is forwarded to the second gateway of the second wired communication trunk.

Abstract: A communication platform includes a wired communication trunk having a first end and a second end. A first acknowledgement device is coupled to the first end of the wired communication trunk. A second acknowledgement device is coupled to the second end of the wired communication trunk.

Abstract: A method, computer program product, and computing system for monitoring a plurality of dataflows within a wired communication trunk for the occurrence of one or more conditions. In response to the occurrence of the one or more conditions, a rate of at least one dataflow chosen from the plurality of dataflows is adjusted.

Abstract: A method, computer program product, and computing system for monitoring a plurality of dataflows within a wired communication trunk. A set of dataflows, chosen from the plurality of dataflows, are identified for prioritization. The set of dataflows are prioritized.

Abstract: A method, computer program product, and computing system for receiving rate control information for an existing dataflow on a first gateway of a first wired communication trunk within a communication platform. The rate control information for the existing dataflow is provided from the first gateway of the first wired communication trunk to a second gateway of a second wired communication trunk within the communication platform.

Abstract: A method, computer program product, and computing system for receiving return data of a dataflow on a first gateway of a first wired communication trunk within a communication platform. If corresponding forward data of the dataflow was not received on the first gateway, a determination is made concerning which gateway within the communication platform received the corresponding forward data, thus defining a second gateway of a second wired communication trunk within the communication platform. The return data is forwarded to the second gateway of the second wired communication trunk.

Abstract: A system, method and computer program product are provided. In use, a plurality of flows associated with packets destined for an output port is identified. A utilization associated with the output port is further measured. Thus, rates of a plurality of the flows destined for the output port may be individually controlled at an input port thereof, based on the utilization to ensure that the utilization remains less than 99.9% and avoid buffering more than 400 packets with a correspondingly low delay.

Abstract: A system, method and computer program product are provided for controlling the rate of a network flow. In use, a rate of a network flow is monitored. In addition, it is determined whether the rate exceeds a threshold. Further, at least a portion of the network flow is conditionally discarded or marked, based on the determination.

Abstract: A router system, method and computer program product are provided. In use, a flow request is received. In addition, the flow request is processed based on one of a plurality of preferences using a single measurement and/or a single computation. Further, the one preference is associated with the flow request.

Abstract: New switching technology relies upon state information for providing a previously unavailable degree of quality of service. In particular, by providing the ability to give service guarantees to uniquely identifiable sets of packets (“micro-flows”), different qualities of service can be offered for each transmission. The QoS associated with each micro-flow is characterized by a set of descriptors. These descriptors are communicated to each switch by the first packet of the micro-flow associated with the descriptors.

Abstract: A mechanism for recovering from a failure in a network is disclosed, wherein a first set of information, such as a first packet, is initially sent from a source to a destination via a first route. As the packet travels along the first route, if a failure is detected somewhere along the route, a message is directed back to the source to inform it of the first route failure. In response to the message, the source reroutes one or more future packets intended for the destination to an alternate route rather than the first route. By doing so, the source routes around the failure to ensure that future packets will not be sent via the failed route. In addition, the source resends the first packet to the destination via the alternate route. By doing so, the source prevents the information from the first packet from being lost. By resending packets in this manner, the failure recovery mechanism makes it possible to not lose information during the recovery process.

Abstract: New switching technology relies upon state information for providing a previously unavailable degree of quality of service. In particular, by providing the ability to give service guarantees to uniquely identifiable sets of packets (“micro-flows”), different qualities of service can be offered for each transmission. The QoS associated with each micro-flow is characterized by a set of descriptors. These descriptors are communicated to each switch by the first packet of the micro-flow associated with the descriptors.

Abstract: An invention is provided for affording an aggregate micro-flow having intelligent load balancing. Initially, a set of label switched paths (LSPs) is defined for a network domain. Then, as the network receives a set of data packets, a micro-flow comprising the set of data packets is defined. In addition to the information included in each received data packet, the micro-flow includes a quality of service (QoS) type. A particular label switched path (LSP) is selected from the defined set of LSPs, based on the QoS type of the micro-flow, and the micro-flow is transmitted along the selected LSP.

Abstract: New switching technology relies upon state information for providing a previously unavailable degree of quality of service. In particular, by providing the ability to give service guarantees to uniquely identifiable sets of packets (“micro-flows”), different qualities of service can be offered for each transmission. The QoS associated with each micro-flow is characterized by a set of descriptors. These descriptors are communicated to each switch by the first packet of the micro-flow associated with the descriptors.

Abstract: A method and system performs parallel processing of asynchronous processes on ordered entities. A system focuses on the average time and variance of the variable time process. Each processor can run multiple contexts. The processing may be divided into a number of stages, each of which can be performed by each of the processors. A system also needs to ensure that the order of the entities is preserved as desired. This order may be maintained by performing some type of pre-processing on the entities to determine their order, and then not starting processing on an entity until the processing of any entity which must precede that entity has been completed. For processing of packets in a network, it may be needed to ensure that packets in the same flow maintain their order after processing. A system also may determine the number of processors that optimally are needed in order to process an incoming stream of entities at a desired speed.

Abstract: New switching technology relies upon state information for providing a previously unavailable degree of quality of service. In particular, by providing the ability to give service guarantees to uniquely identifiable sets of packets (“micro-flows”), different qualities of service can be offered for each transmission. The QoS associated with each micro-flow is characterized by a set of descriptors. These descriptors are communicated to each switch by the first packet of the micro-flow associated with the descriptors.

Abstract: New switching technology relies upon state information for providing a previously unavailable degree of quality of service. In particular, by providing the ability to give service guarantees to uniquely identifiable sets of packets (“micro-flows”), different qualities of service can be offered for each transmission. The QoS associated with each micro-flow is characterized by a set of descriptors. These descriptors are communicated to each switch by the first packet of the micro-flow associated with the descriptors.

Abstract: New switching technology relies upon state information for providing a previously unavailable degree of quality of service. In particular, by providing the ability to give service guarantees to uniquely identifiable sets of packets (“micro-flows”), different qualities of service can be offered for each transmission. The QoS associated with each micro-flow is characterized by a set of descriptors. These descriptors are communicated to each switch by the first packet of the micro-flow associated with the descriptors.

Abstract: New switching technology relies upon state information for providing a previously unavailable degree of quality of service. In particular, by providing the ability to give service guarantees to uniquely identifiable sets of packets (“micro-flows”), different qualities of service can be offered for each transmission. The QoS associated with each micro-flow is characterized by a set of descriptors. These descriptors are communicated to each switch by the first packet of the micro-flow associated with the descriptors.