Abstract: Systems and methods are provided for network slice selection during an initial connection. A wireless station receives, from a core network device, network slice data for each network slice available via the wireless station, wherein the network slice data includes a slice identifier and corresponding slice characteristics for each network slice. The wireless station receives, from a user equipment (UE) device, a registration request message that indicates a network slice characteristic required by an application being executed on UE device. The wireless station selects, based on the network slice data from the core network device and the network slice characteristic from the UE device, one of the slice identifiers for servicing the UE device.

Abstract: A system may be configured to identify that a user device is connected to a first radio access network (“RAN”), via a first technology; and to identify that the user device is capable of accessing a second RAN, via a second technology. The system may further be configured to instruct the user device to concurrently connect to the second RAN and the first RAN, send or receive a first type of traffic via the first RAN, and send or receive a second type of traffic via the second RAN.

Abstract: A method, a device, and a non-transitory storage medium are described in which policy delivery is provided. A network device of a core network may receive a registration request message that includes a request for an end device policy. The network device may perform a registration procedure and a policy procedure pertaining to an end device. The network device determines when the registration and the policy procedures are completed. The network device transmits a registration response that includes an end device policy to an end device.

Abstract: A system includes an updated network function and a consumer network function. The updated network function includes a recent update and is configured to register at a Network Repository Function (NRF) using a Network Function (profile (NF profile). The NF profile indicates a network function type (NF type) and a first priority associated with the update. The consumer network function is configured to: receive a message from a network component; determine to engage a service of a network function of the NF type based on the message; determine a desired priority for the service; and send a discovery request to the NRF in response to the message; receive a search result from the NRF in response to the discovery request. The search result has a list of candidate network functions of the NF type.

Abstract: A network device receives an attach request indicating that a user device is attempting a connection associated with a non-access stratum (NAS) and a particular interface, and generates a create session request that includes an indication that the connection for the user device is associated with the NAS and the particular interface. The network device provides, to a serving gateway (SGW) of the network, the create session request that includes the indication, and receives, from the SGW, a create session response that includes rules for handling the connection for the user device that is associated with the NAS and the particular interface, wherein the rules have been generated by a policy and charging rules function (PCRF) of the network. The network device provides, to the user device, an attach accept, that includes the rules, to permit the user device is to connect with the network and to utilize the rules.

Abstract: A method for activating bearers in radio access networks includes receiving information regarding channel conditions for a secondary RAT; identifying a first set of radio bearers for a primary RAT and a second set of radio bearers for the secondary RAT based on the received channel conditions; and establishing the first set of radio bearers associated with the primary RAT. The method may also include providing a message to a core network indicating that first set of radio bearers have been established for the primary RAT, the message includes an indication that the second set of radio bearers will be established after the core network has been configured for operation with the first set of radio bearers; reconfiguring a UE for establishing the second set of radio bearers associated with the secondary RAT; and indicating that the reconfiguration of the UE for the second set of radio bearers is complete.

Abstract: Systems and methods receive first traffic originating from a mobile device and second traffic originating from second devices tethered to the mobile device; tag the first traffic to indicate that the traffic originates from the mobile device; tag the second traffic to indicate that the traffic originates from the second devices; receive subscriber data that includes a first threshold and a second threshold, wherein the first threshold is associated with the first traffic originating from the mobile device and the second threshold is associated with the second traffic originating from the second devices tethered to the mobile device; determine that an amount of the second traffic exceeds the second threshold; rate limit the second traffic without rate limiting the first traffic when the amount of the second traffic exceeds the second threshold and an amount of the first traffic does not exceed the first threshold.

Abstract: A method for controlling bearers in a core network includes receiving, from a user equipment (UE) device, a request for access to network resources, where the core network is coupled with a primary radio access technology (RAT) and a secondary RAT. The method includes determining an access point name (APN) RAT access restriction in response to the received request, where the APN RAT access restriction associates an APN with a corresponding RAT, where the corresponding RAT comprises at least one of the primary RAT or the secondary RAT. The method also includes assigning a radio bearer based on the determined APN RAT access restriction, wherein the assigned radio bearer exchanges data via the corresponding RAT; and identifying, to a master node, the assigned radio bearer for exchanging data between the UE device and a device specified by the APN via the corresponding RAT.

Abstract: Systems and methods described herein provide for coordination of inactivity procedures between wireless stations in a multi-RAT dual connectivity scenario. A wireless station identifies, for an end device, a multi-radio access technology (RAT) dual connectivity scenario with dedicated bearers and detects inactivity for a bearer using the master wireless station. In response to the detecting, the master wireless station sends, to a secondary wireless station, an inactivity status check for another bearer of the multi-RAT dual connectivity scenario. When a response to the inactivity status check is received from the secondary wireless station within a designated time window, the master wireless station waits for a release request from the secondary wireless station and initiates an inactivity procedure for the end device when the release request is received.

Abstract: Systems and methods described herein enable differentiated policy enforcement for dual connectivity split bearer scenarios. A wireless station receives, from a core network associated with the wireless station, downlink packets directed to an end device that is using a dual-connectivity split bearer. The wireless station directs delivery of the downlink packets over different radio access networks (RANs) of the dual-connectivity split bearer. The wireless station logs a radio access technology (RAT)-type used to deliver each of the downlink packets and sends, based on the logging, a downlink RAT-type feedback report to a network device in the core network. The wireless station receives uplink packets from the end device using the dual-connectivity split bearer, marks each of the uplink packets with a RAT-type indicator, and forwards the marked packets to the network device in the core network.

Abstract: A device may receive streaming information associated with one or more user devices, streaming content being provided to the one or more user devices, and a cell associated with the one or more user devices. The device may determine a quantity of user devices receiving the streaming content in the cell based on the streaming information. The device may determine whether the streaming content is being provided using a unicast stream or is being provided using a multicast stream. The device may determine to switch from the unicast stream to the multicast stream or from the multicast stream to the unicast stream based on the quantity of user devices. The device may switch from the unicast stream to the multicast stream, or the multicast stream to the unicast stream based on determining to switch.

Abstract: A device may receive information associated with establishing a gateway connection. The gateway connection may be an ad hoc connection to a user device that permits the user device to transfer network traffic to/from a base station via another user device and without the user device directly connecting to the base station via a radio access network. The information being associated with determining that a gateway establishment condition is satisfied. The device may cause the gateway connection to be established based on the information associated with establishing the gateway connection. The device may cause the user device to utilize the gateway connection to transfer network traffic to/from the base station.

Abstract: A server device may receive content that was transmitted using a broadcast technique; track a quantity of user devices that have entered a particular area after the content has been received by the server device; determine, based on the tracking, that the quantity of user devices meets or exceeds a threshold quantity; and redistributing, by the server device and based on the determining, the content to one or more of the user devices that have entered the particular area after the content has been received by the server device.

Abstract: Flight path determination for unmanned aerial vehicles (UAVs) in which three-dimensional coverage information, corresponding to a wireless network, is used to optimize the flight path to ensure that the UAVs maintain network coverage throughout the flight. The flight path information may be provided as a service to UAV operators. In one implementation, network coverage for a network may be mapped in a three-dimensional manner. That is, the radio signal strength of the network may be mapped at various heights that correspond to heights at which UAVs are likely to fly.

Abstract: A method for activating bearers in radio access networks includes receiving information regarding channel conditions for a secondary RAT; identifying a first set of radio bearers for a primary RAT and a second set of radio bearers for the secondary RAT based on the received channel conditions; and establishing the first set of radio bearers associated with the primary RAT. The method may also include providing a message to a core network indicating that first set of radio bearers have been established for the primary RAT, the message includes an indication that the second set of radio bearers will be established after the core network has been configured for operation with the first set of radio bearers; reconfiguring a UE for establishing the second set of radio bearers associated with the secondary RAT; and indicating that the reconfiguration of the UE for the second set of radio bearers is complete.

Abstract: A method includes receiving metrics associated with traffic that complies with a grade of service (GOS) associated with a customer premises equipment (CPE) device, where the metrics identify a group of cells via which the traffic is received by the CPE device. The method also includes retrieving information associated with traffic conditions within a group of base stations; initiating a load balancing operation when traffic conditions within a base station indicate that a particular cell, associated with the base station, is congested; and sending, to a set of base stations that send traffic to the CPE device, a notification, where the notification causes traffic, not destined for the CPE device, to be rerouted to another base station, which enables the base station to send traffic, that complies with the GOS, to the CPE device, or causes the CPE device to receive traffic, that complies with the GOS, from a further based station.

Abstract: Systems and methods receive first traffic originating from a mobile device and second traffic originating from second devices tethered to the mobile device; tag the first traffic to indicate that the traffic originates from the mobile device; tag the second traffic to indicate that the traffic originates from the second devices; receive subscriber data that includes a first threshold and a second threshold, wherein the first threshold is associated with the first traffic originating from the mobile device and the second threshold is associated with the second traffic originating from the second devices tethered to the mobile device; determine that an amount of the second traffic exceeds the second threshold; rate limit the second traffic without rate limiting the first traffic when the amount of the second traffic exceeds the second threshold and an amount of the first traffic does not exceed the first threshold.

Abstract: Techniques described herein may allow for the selective enabling and/or disabling of shared access points (“SAPs”). The selective enabling and/or disabling may occur based on the analysis of key performance indicators (“KPIs”) associated with the SAPs. The selective enabling and/or disabling may cause the SAPs to cease (or continue) broadcasting their availability for User Equipment (“UEs”) of a particular wireless provider, decline (or accept) bearer requests for UEs of the particular wireless provider, or terminate existing connections with UEs of the particular wireless provider. The selective enabling and/or disabling may be performed for certain applications or Quality of Service (“QoS”) levels. The selective enabling and/or disabling may be performed proactively (e.g., without necessarily determining that the performance for a given SAP has not met a threshold performance), based on historical trends.

Abstract: Systems described herein ensure authorized communications between application servers and machine-type communications (MTC) devices. The systems store a subscriber profile for an MTC device, the subscriber profile including application server (AS) configuration information designating application servers that are authorized to connect with the MTC device. The systems receive a non-IP data delivery (NIDD) registration request from an application server, wherein the NIDD registration request includes an identifier for the MTC device. The systems obtain, from the application server, a first identifier for the application server, and retrieve, based on the NIDD registration request, the AS configuration information from the subscriber profile.

Abstract: A device establishes a first transmission control protocol (TCP) connection with a client device associated with a wireless network, and establishes a second TCP connection with a server device associated with the wireless network. The device also provides a first TCP window size to the client device via the first TCP connection, and provides a second TCP window size to the server device via the second TCP connection, where the first TCP window size is different than the second TCP window size.