Abstract:
A computer implemented method, apparatus, and computer usable program code for managing addresses in a network. In one advantageous embodiment, a computer implemented method is used to managing addresses for a plurality of destinations in a network. Addresses assigned to a plurality of gateways are summarized to form summarized addresses containing prefixes and addresses for the plurality of gateways in which each gateway in the plurality of gateways is associated with a portion of the prefixes and addresses for destinations handled by the each gateway in the plurality of gateways. A gateway in the plurality of gateways having a largest portion of the summarized addresses is assigned a prefix for all addresses assigned to the network to form a selected gateway. An associated portion of the summarized addresses for the selected gateway is replaced with the prefix.
Abstract:
A method, apparatus, and computer usable program code for managing networks. In one advantageous embodiment, a computer implemented method processes routing information. The process collects updates to the routing information in a first network. Responsive to an event, a cost of reaching each address in the first network from each of a plurality of gateways in the first network that has access to a second network is identified to form identified costs. The process also selects a set of addresses for a set of gateways providing access to the second network, wherein each gateway in the set of gateways is identified using a policy with respect to a cost of reaching a particular address in the first network to form an update list. The update list is sent to the second network.
Abstract:
A method, apparatus, and computer usable program code for managing networks. In one advantageous embodiment, a computer implemented method processes routing information. The process collects updates to the routing information in a first network. Responsive to an event, a cost of reaching each address in the first network from each of a plurality of gateways in the first network that has access to a second network is identified to form identified costs. The process also selects a set of addresses for a set of gateways providing access to the second network, wherein each gateway in the set of gateways is identified using a policy with respect to a cost of reaching a particular address in the first network to form an update list. The update list is sent to the second network.
Abstract:
A computer implemented method, apparatus, and computer usable program code for managing addresses in a network. In one advantageous embodiment, a computer implemented method is used to managing addresses for a plurality of destinations in a network. Addresses assigned to a plurality of gateways are summarized to form summarized addresses containing prefixes and addresses for the plurality of gateways in which each gateway in the plurality of gateways is associated with a portion of the prefixes and addresses for destinations handled by the each gateway in the plurality of gateways. A gateway in the plurality of gateways having a largest portion of the summarized addresses is assigned a prefix for all addresses assigned to the network to form a selected gateway. An associated portion of the summarized addresses for the selected gateway is replaced with the prefix.
Abstract:
A node in a mobile ad-hoc network or other network classifies packets (a) in accordance with a first set of priority levels based on urgency and (b) within each priority level of the first set, in accordance with a second set of priority levels based on importance. The node: (a) queues packets classified at highest priority levels of the first and/or second sets in high-priority output queues; (b) queues packets classified at medium priority levels of the first set in medium-priority output queue(s); and (3) queues packets classified at low priority levels of the first and/or second set in low-priority output queue(s). Using an output priority scheduler, the node serves the packets in order of the priorities of the output queues. In such manner, orthogonal aspects of DiffServ and MLPP can be resolved in a MANET or other network.
Abstract:
A node in a mobile ad-hoc network or other network classifies packets (a) in accordance with a first set of priority levels based on urgency and (b) within each priority level of the first set, in accordance with a second set of priority levels based on importance. The node: (a) queues packets classified at highest priority levels of the first and/or second sets in high-priority output queues; (b) queues packets classified at medium priority levels of the first set in medium-priority output queue(s); and (3) queues packets classified at low priority levels of the first and/or second set in low-priority output queue(s). Using an output priority scheduler, the node serves the packets in order of the priorities of the output queues. In such manner, orthogonal aspects of DiffServ and MLPP can be resolved in a MANET or other network.
Abstract:
A node in a mobile ad-hoc network or other network classifies packets (a) in accordance with a first set of priority levels based on urgency and (b) within each priority level of the first set, in accordance with a second set of priority levels based on importance. The node: (a) queues packets classified at highest priority levels of the first and/or second sets in high-priority output queues; (b) queues packets classified at medium priority levels of the first set in medium-priority output queue(s); and (3) queues packets classified at low priority levels of the first and/or second set in low-priority output queue(s). Using an output priority scheduler, the node serves the packets in order of the priorities of the output queues. In such manner, orthogonal aspects of DiffServ and MLPP can be resolved in a MANET or other network.