Abstract: A processing system of a cellular network having a processor may receive, from an endpoint device via one of a first radio access infrastructure or a second radio access infrastructure of the cellular network, a request to establish a connection to a packet data network via the cellular network. The processing system may establish, in response to the request, a first session for the endpoint device via the first radio access infrastructure, and a second session for the endpoint device via the second radio access infrastructure of the cellular network, where the connection to the packet data network includes the first session and the second session. The processing system may further configure the first session or the second session for control plane signaling for the connection, and configure the first session, the second session, or both the first session and the second session for user plane communications for the connection.

Abstract: An intelligent network policy engine can be utilized to apply dynamic policy changes for microservices. For example, based on outlined service provider policies, user equipment state data, and/or network state data, the intelligent network policy engine can determine which microservices to use and/or what order to use the microservices to increase a performance of the network. The intelligent network policy engine can perform conflict resolution based on how network traffic should be treated in certain scenarios.

Abstract: Facilitating enablement of intelligent service aware access utilizing multiaccess edge computing advanced networks (e.g., 5G, 6G, and beyond) is provided herein. Operations of a method can comprise determining a network service being utilized by a first user equipment device has not been instantiated at a distributed network device and based on the first user equipment device approaching a service range of the distributed network device. The method also can comprise deploying the network service, as a microservice, at the distributed network device prior to the first user equipment device entering the service range of the distributed network device. Further, the method can comprise removing the network service from being deployed at the distributed network device based on a determination that the first user equipment device is no longer within the service range of the distributed network device and a second user equipment device is not utilizing the network service.

Abstract: Aspects of the subject disclosure may include, for example, a method including enabling, by a system comprising a processor, a first modification of a first user profile at a secondary data repository of a communication network; the first modification is directed by a first application operating at a first communication device of the communication network. A usage event is identified that is associated with the first communication device according to the first modification to the first user profile. A second modification to a second user profile is replicated at a primary data repository according to a change in operation of a second application associated with the usage event that is identified to the first communication device; the replication is performed according to an update policy for the primary data repository. Other embodiments are disclosed.

Abstract: Aspects of the subject disclosure may include, for example, detecting a request for access to a wireless network via an access point. Responsive to a first determination that the identifier corresponds to an entry in the list, access is facilitated to the wireless network via the access point without the equipment of the requesting user providing credentials to the wireless network. The list includes a first set of entries corresponding to a first set of users having unrestricted access and a second set of entries corresponding to a second set of users having restricted access. Responsive to a second determination that the identifier does not correspond to any of the entries, a message is transmitted to equipment of the host regarding the request, and responsive to receiving approval, the list is updated to include the identifier. Other embodiments are disclosed.

Abstract: Aspects of the subject disclosure may include, for example, determining a first group of virtual network functions of a first network slice instantiated within a software defined network and adapted to perform a first activity that facilitates delivery of a service to wireless equipment of a first user. Access is facilitated to a second group of virtual network functions of a second network slice responsive to a determination of an occurrence of a condition. The second group of virtual network functions, when instantiated within the software defined, network are configured to deliver the service to the wireless equipment of the first user. The second network slice is further adapted to perform another activity that facilitates delivery of another service. Other embodiments are disclosed.

Abstract: Aspects include identifying an application executed by a communication device, identifying a first edge device capable of providing a first portion of a service in accordance with a first access technology and a second edge device capable of providing the first portion of the service in accordance with a second access technology that is different from the first access technology, selecting one of the first edge device or the second edge device as a first selected edge device, wherein the selecting is based on the identifying of the application, and establishing a communication session between the first selected edge device and the communication device in accordance with the access technology of the first selected edge device to facilitate a transfer of first data associated with the first portion of the service from the first selected edge device to the communication device. Other embodiments are disclosed.

Abstract: Concepts and technologies directed to an integrated telecommunications roadside unit for supporting vehicle-to-everything (“V2X”) communications are disclosed herein. Embodiments of an integrated telecommunications roadside unit can include a processor and a memory that store computer-executable instructions that configure a processor to perform operations. The operations can include intercepting a vehicle-to-vehicle communication that is provided from a first vehicle to a second vehicle. The vehicle-to-vehicle communication can be transmitted using a direct transmission mode. The operations can further include encapsulating the vehicle-to-vehicle communication in a user plane package. The operations can also include routing the user plane package to a destination network access node, where the destination network access node is outside of a direct communication range corresponding to the first vehicle and the second vehicle.

Abstract: In 6G, there are multiple radios that can cover the same location at any time, and yet radio failure can occur. However, a mobile edge computing (MEC) platform can increase the footprint of adjacent radios to compensate for a failed radio. To reduce the failure interruption and maintain a quality of experience for a subscriber, the MEC can utilize a virtual session capability to communicate radio change of service characteristics to a service provider. Consequently, the change in service characteristics can comprise an expanded coverage area for adjacent radios such that a mobile device of the subscriber can take advantage of the expanded coverage area without experiencing an interruption in service.

Abstract: The provision of additional network resources (e.g., in the form of a dedicated super slice), can be requested on demand a per needed basis when higher capacity or performance is requested to facilitate the delivery of a service, when the delivery of the service cannot be met by a network slice associated with the service. A request for using a super slice can be sent to a management gateway device (mGW). The mGW can send the request for authorization to access the additional resources to a management device that manages the additional resources. Authorization can be granted for the additional resources to be used to facilitate or enable tasks that allow for continued delivery of that service.

Abstract: Facilitating automatic latency discovery and dynamic network selection using data analytics in advanced networks (e.g., 4G, 5G, 6G, and beyond) is provided herein. Operations of a method can comprise inserting, by a system comprising a processor, first information indicative of a first identified time into a first field of a message. Also, the method can comprise transmitting, by the system, the message to a defined device. Further, the method can comprise determining, by the system, an end-to-end latency for the message based on a response received from the defined device in reply to the message. The response can comprise second information indicative of a second identified time that the message was received at the defined device.

Abstract: Example methods, apparatus, systems, and machine-readable mediums for dynamically adjusting a network inactivity timer during user endpoint mobility states are disclosed. An exemplary system includes a radio network including one or more base nodes, a network controller and network resources allocable to user endpoints and communications therewith. The system further including a first one of the user endpoints co-located with a vehicle and configured to determine mobility state information in correspondence with travel of the vehicle and of the first one of the user endpoints, the first one of the user endpoints utilizing an inactivity timer to release network resources allocated to the first one of the user endpoints. The network controller of the system is in communication with the first one of the user endpoints to update a value for the inactivity timer in correspondence with network policy data and the mobility state information.

Abstract: Techniques for instantiating and managing microservices for use in connection with devices associated with a core network are presented. A service management component (SMC) can determine a subgroup of services to be used for a group of one or more devices based on results of analysis of characteristics and service conditions associated with the group of devices, wherein a characteristic can relate to whether a device is stationary or mobile. At a desired time(s), which can be periodically, dynamically, or upon request, SMC can instantiate or facilitate instantiating the subgroup of services to facilitate communicating data associated with the device(s) using the subgroup of services. The services can comprise a connectionless service, connection-oriented service, charging service, authentication service, UPF services, or other services. SMC can employ the connectionless service when a device is stationary, but the connectionless service can be extended to devices when they are nomadic or mobile.

Abstract: A mobile edge computing (MEC) architecture can facilitate utilization of virtual multi-point non-internet protocol (IP) connections in radio access networks (RAN). Thus, the same mobile device can be addressed with multiple radio access technologies (RATs). The MEC can provide service continuity in multi-access technologies using virtual session, and the MEC can terminate a main session between a core network and the MEC, for the mobile device, via a single IP address, Based on the services and the states of the access network in the multi-access environment, the MEC can dynamically select the RAT and access point as the target to deliver the service over the RAN.

Abstract: Peripheral devices such as wearables can link to mobile devices to access network elements. These peripheral devices can comprise a communication part and a processing part. Each of these parts, specially the processing part of the next item in a communication chain, can be multiple times larger and stronger than the previous linked item. For instance, the peripheral device can be connected to the mobile device which can be in line connected to an NodeB device. Because the processing power of mobile device can be several times stronger than the peripheral, a mobile edge computing platform and a multi-access application function facilitate sharing of processing power capabilities between the peripheral devices, mobile devices, and/or the NodeB devices.

Abstract: A framework for dynamic network resource allocation and energy saving based on the real-time environment, radio network information, and machine learning (ML) can be utilized via a radio access network (RAN) intelligent controller (RIC). Real-time and predicted network utilization can facilitate resource and energy savings by leveraging the RIC platform. For example, a network information base (NIB) in the RIC platform can collects RAN and user equipment (UE) resource related information in real time and provides the abstraction of the access network in the real time. ML can predict real-time information about the UEs at time t based on data analytics and real time radio resource needs. The RIC can then instruct the network to reduce or increase resources.

Abstract: Aspects of the subject disclosure may include, for example, receiving a first service request via a network, transmitting a query to service layer equipment, and receiving, from the service layer equipment, first service requirements to fulfill the first service request. Responsive to receiving the first service requirements, a request for network resource capacity information is transmitted to instantiated software defined network (SDN) controllers. Network capacity information is received from the instantiated SDN controllers and an insufficiency thereof is determined according to the service requirements and the network capacity information. Another software defined network controller is instantiated into the network, responsive to the determined insufficiency, to fulfill the first service request. The first service requirements are met, in part, by the instantiated software defined network controllers that are instantiated and, in part, by the other software defined network controller.

Abstract: Concepts and technologies disclosed herein are directed to session continuity between software-defined network (“SDN”) controlled and non-SDN controlled wireless networks. In one embodiment, an SDN controller can determine that a handover of a user equipment (“UE”) from a base station operating under control of the SDN-controlled network to a further base station operating under control of a non-SDN-controlled network has occurred. The SDN controller can establish over an interface between the SDN controller and a packet gateway (“P-GW”), a tunnel through which to exchange handover data associated with the handover and a session IP address for a session in which the UE is involved. The SDN controller can provide, over the interface and through the tunnel, the handover data and the session IP address to the P-GW.

Abstract: Aspects of the subject disclosure may include, for example, a method comprising providing services over a network to a device, and constructing device capability and usage profiles. A level of service quality for the device is adjusted by adjusting a latency criterion regarding connection of the device to the network; adjusting a speed of transmissions to or from the device; and altering a routing of transmissions to or from the device. The network can be partitioned so that the adjusted service quality level is provided by a network portion having a predetermined level of resources. The adjusted service quality level can comprise a first level while the device is active and a second level while the device is inactive; the first level is higher than the second level. The first and second levels are lower than a service quality level provided by another network portion. Other embodiments are disclosed.

Abstract: The functionality of Internet enabled devices, also referred to as Internet of Things (IoT) devices, is dependent upon network connectivity with application servers hosted in the cloud. The disclosed Internet enabled device application service chaining orchestrator (Orchestrator) may manage application servers according to application server parameters and may assist a network in managing communications between Internet enabled devices and their respective application servers in the cloud. The application server parameters for a particular application server may be assigned based on the IoT device that the particular application server supports (e.g., the device capabilities or network performance requirements). Exemplary application server parameters may include Industry Vertical (IV), which may be a designation for an industry or technical field that the IoT device and the application server supports. Each IV may include multiple Class of Service (CoS) (e.g., CoS1, CoS2, CoS3 . . .