Abstract:
Systems and methods for network function virtualization (NFV) resource management are disclosed that include receiving, by a network functions virtualization orchestrator (NFVO), a reuse requirement for a first network service (NS) and determining, by the NFVO, that at least one constituent virtual network function (VNF) instance in the first NS is retainable for reuse in a second NS according to the reuse requirement when the first NS is to be terminated. In some embodiments, these systems and methods also include retaining, by the NFVO, the at least one constituent VNF instance in the first NS for reuse in the second NS.
Abstract:
System and method for resource management are disclosed. These include receiving, by a virtualized network function (VNF) manger (VNFM) entity, from a network functions virtualization orchestrator (NFVO) entity a granting indication including a granting granularity in which the NFVO entity permits the VNFM entity to perform multiple VNF management operations for one or more VNFs, determining, by the VNFM entity, that a first VNF management operation is in a scope of permission based on the granting indication upon the first VNF management operation being triggered, and sending, by the VNFM entity, a first resource allocation request for the first VNF management operation to a virtual infrastructure manager (VIM) entity.
Abstract:
A method for allocating an IP address for an instance in a NFV system includes obtaining a first requirement of IP address allocation from VNFD by a first node in the NFV system. A second requirement of IP address allocation for the instance is determined according to the first requirement. Then the second requirement is sent to a second node in the NFV system that allocates the IP address for the instance.
Abstract:
A system and method for network functions virtualization management and orchestration includes a virtualized infrastructure manager, a network functions virtualization orchestrator coupled to the virtualized infrastructure manager, a virtual network function manager coupled to the network functions virtualization orchestrator, one or more dedicated network services coupled to the network functions virtualization orchestrator, the one or more dedicated network services being orchestrated by the network functions virtualization orchestrator in accordance with a generic network service descriptor, and one or more dedicated network functions coupled to the virtual network function manager, the virtual network function manager configured to manage the dedicated network functions in accordance with a generic network function descriptor.
Abstract:
System and method embodiments are provided for optimizing offloading wireless services to a WLAN in 3GPP-RAT mobility. The embodiments enable changing network priority based on changing network conditions. In an embodiment, a method in a user equipment (UE) for offloading wireless services to a wireless local area network (WLAN) in a Third Generation Partnership Project (3GPP) inter-radio access technology (RAT) handover includes receiving an access network discovery and selection function (ANDSF) policy from an ANDSF server, wherein the ANDSF policy comprises policy rules including a validity condition, wherein the receiving is performed during a procedure in which the UE conducts an inter-RAT handoff from a first 3GPP RAT to a second 3GPP RAT; comparing evaluation condition information for the second 3GPP RAT against the validity condition; and offloading a first wireless service to the WLAN in accordance with the ANDSF policy when the validity condition is satisfied.
Abstract:
In a described embodiment of the disclosure, a method is described including a network function virtualization (NFV) manager obtaining a plurality of policies for managing a plurality of virtual network function (VNF) instances on a computing platform. The NFV manager also defines at least one VNF instance operating on the computing platform. The at least one VNF instance has a definition comprising a policy indication indicating acceptance, modification, or rejection of at least one of the plurality of policies managed by the NFV manager.
Abstract:
An embodiment method for network detection and selection includes receiving, by a user equipment (UE), a network detection and selection policy including a load threshold element, the UE further receiving load information element from an access network (AN), and applying the network detection and selection policy to the AN.
Abstract:
Internet protocol (IP) address allocations in distributed EPC networks can be published to an IP address registry maintained at the central EPC entity in order to facilitate the routing of authentication authorization, and accounting (AAA) signaling of third party networks throughout the distributed EPC network architecture. The address allocations can be published directly to an address registry maintained by the central EPC entity, or indirectly via a cloud management server. Additionally, latencies associated with UE authentication in distributed EPC network architectures can be mitigated by triggering communication of the authentication or authorization profile upon reception of an update location request (ULR) message at the central EPC network entity.
Abstract:
An embodiment method for network detection and selection includes receiving, by a user equipment (UE), a network detection and selection policy including a load threshold element, the UE further receiving load information element from an access network (AN), and applying the network detection and selection policy to the AN.
Abstract:
An apparatus and method for terminating a virtual network function (VNF) instance according to termination requirements of the VNF instance. The termination requirements may be defined in a VNF descriptor corresponding to the VNF instance. A network function virtualization (NFV) management entity may obtain the termination requirements and initiate termination of the VNF instance based on the obtained termination requirements.