Abstract: Software-defined networking (SDN) can be utilized with a wireless network platform to increase efficiencies and mitigate service lapses. Within an SDN enabled on-demand dynamic 5G network slice management architecture, the SDN can be utilized for on the-fly deployment of network slicing. For example, an SDN network slice broker (SNSB), can facilitate an on-demand allocation of network resources performing admission control, resource negotiation, and charging. Additionally, the system can comprise an SDN-enabled edge slice mobile edge computing (MEC) coordinator and a local slice MEC agent. Thus, the SDN facilitate on-demand alternate paths, by utilizing the SDN-enabled edge slice MEC coordinator and the local slice MEC agents at various slices.

Abstract: In a voice-over-IP communications network, call data records include dynamically assigned IP signaling addresses such as IPv6 signaling addresses used in provisioning communications sessions. Those dynamically assigned IP signaling addresses are computed from customer site identification codes using a reversible algorithm. The algorithm can then be reversed to compute a customer site identification code from an IP signaling address contained in a call data record, allowing the communications network provider to perform quality monitoring and diagnostics based on call data records.

Abstract: In a voice-over-IP communications network, call data records include dynamically assigned IP signaling addresses such as IPv6 signaling addresses used in provisioning communications sessions. Those dynamically assigned IP signaling addresses are computed from customer site identification codes using a reversible algorithm. The algorithm can then be reversed to compute a customer site identification code from an IP signaling address contained in a call data record, allowing the communications network provider to perform quality monitoring and diagnostics based on call data records.

Abstract: A method and apparatus for managing customer topologies on packet networks are disclosed. For example, the method creates at least two event correlation instances for at least one customer topology, where a first event correlation instance resides in a primary availability management server, and a second event correlation instance resides in a secondary availability management server. The method also creates a test node for the first event correlation instance, where the test node provides at least one test message. The method then receives at least one response generated by the first event correlation instance that is responsive to the at least one test message, where the at least one response is received by the second event correlation instance. The method then performs a fail-over to the second event correlation instance from the first event correlation instance if a failure is detected from the at least one response.

Abstract: A method and apparatus for managing networks across multiple domains are disclosed. For example, the method stores a mapping table that correlates one or more Customer Edge Routers (CERs) with one or more Route Processing Modules (RPMs) in at least one seed-file distributor, where each of the one or more Customer Edge Routers (CERs) is monitored by one of the at least one availability manager. The method receives an alarm associated with one of the one or more RPMs that affects one of the one or more CERs, where the alarm is received by one of the at least one availability manager that is monitoring the affected one of the one or more CERs. The method then provides a status associated with the one of said one or more RPMs in accordance with the alarm.