Abstract: A network device may receive forwarding data associated with a multi-level hybrid hierarchy forwarding information base of the network device. The network device may process the forwarding data to generate a first set of transformed forwarding next hop entries. The network device may process the first set of transformed forwarding next hop entries, associated with default forwarding classes, to generate a second set of transformed forwarding next hop entries. The network device may process the first set of transformed forwarding next hop entries, associated with all classes of traffic, to generate a third set of transformed forwarding next hop entries. The network device may group the sets of transformed forwarding next hop entries, based on transformed group next hop entries, to generate a final set of transformed forwarding next hop entries. The network device may transform the final set of transformed forwarding next hop entries into a particular format.

Abstract: A network device may receive forwarding data associated with a multi-level hybrid hierarchy forwarding information base of the network device. The network device may process the forwarding data to generate a first set of transformed forwarding next hop entries. The network device may process the first set of transformed forwarding next hop entries, associated with default forwarding classes, to generate a second set of transformed forwarding next hop entries. The network device may process the first set of transformed forwarding next hop entries, associated with all classes of traffic, to generate a third set of transformed forwarding next hop entries. The network device may group the sets of transformed forwarding next hop entries, based on transformed group next hop entries, to generate a final set of transformed forwarding next hop entries. The network device may transform the final set of transformed forwarding next hop entries into a particular format.

Abstract: Techniques are described for providing targeted selection of cascade ports of an aggregation device. In one example, the disclosed techniques enable dynamic assignment of active and backup cascade ports of an aggregation device for each extended port of satellite devices. In this example, rather than allocating resources for each of the extended ports of the satellite devices on all of the cascade ports of the aggregation device, the aggregation device instead allocates resources for each of the extended port only on the assigned active and backup cascade ports for the respective one of the extended ports of the satellite devices. The techniques are also described for providing traffic steering to a backup cascade port in the event the assigned active cascade port is unreachable, and, if the cascade port remains unreachable for a specified duration, the aggregation device may assign new active and backup cascade ports for the extended port.

Abstract: Techniques are described for providing targeted selection of cascade ports of an aggregation device. In one example, the disclosed techniques enable dynamic assignment of active and backup cascade ports of an aggregation device for each extended port of satellite devices. In this example, rather than allocating resources for each of the extended ports of the satellite devices on all of the cascade ports of the aggregation device, the aggregation device instead allocates resources for each of the extended port only on the assigned active and backup cascade ports for the respective one of the extended ports of the satellite devices. The techniques are also described for providing traffic steering to a backup cascade port in the event the assigned active cascade port is unreachable, and, if the cascade port remains unreachable for a specified duration, the aggregation device may assign new active and backup cascade ports for the extended port.