Abstract:
A system may be configured to determine radio frequency (“RF”) transmission error types associated with a group of channels. Each channel may be associated with a particular remote radio node (“RRN”), of a group of RRNs, and a user device. The system may further modify subsequent RF communications between the RRNs and the user device, on a per-channel basis, and based on the determined transmission error types associated with each channel.
Abstract:
A base station may receive an indication to manage a connection, associated with a device, or traffic associated with the device. The indication may include a network identifier associated with a core network. The base station may determine, based on the network identifier, management information associated with managing the connection or the traffic associated with the device. The base station may manage, based on the management information, the connection or the traffic associated with the device.
Abstract:
A server device may determine session information that identifies a quantity of sessions established between each of one or more serving gateways (SGWs) and a packet data network (PDN) gateway (PGW); and direct a mobility management entity (MME) to assign additional sessions between the one or more SGWs and the PGW based on the session information.
Abstract:
One or more server devices may determine a measure of popularity of multiple content items; select particular content to be provided via a multicast channel when the measure of popularity of the particular content satisfies a threshold; generate a notification regarding the availability of the particular content; and provide the notification to one or more user devices for display on the one or more user devices to notify respective users regarding the availability of the content. The notification may be received by the one or more user devices outside of a multicast control channel. The one or more servers may transmit the particular content via the multicast channel.
Abstract:
In a network containing a macro base station and wireless access points within the range of the macro base station, information from wireless access points are used to change the quantity of almost blank subframes delivered by the macro base station, adjust the cell range extension area of one or more of the wireless access points, or provide instructions to alter the number of wireless access points. The information is analyzed. The analysis allows determination of a capacity gain associated with using the wireless access points within an area associated with the macro base station and whether the capacity gain provides at least a threshold amount of gain permitting the macro base station and the wireless access points to provide service to mobile devices within the area.
Abstract:
A method, a device, and a non-transitory storage medium are described in which an inter-operator mobility service is provided. The service may provide provisioning decisions and configurations that may include core devices that are shared between users of a first entity and users of a second entity or are dedicated to the users of an entity to support a network slice and/or access to an application service for end devices. The service may manage access and use of radio frequencies associated with the first and second entities based on subscription information and location of the end devices associated with first and second entities. The service may further include enabling inter-network handovers associated with end devices.
Abstract:
A method, a device, and a non-transitory storage medium are described in which an inter-operator mobility service is provided. The service may provide provisioning decisions and configurations that may include core devices that are shared between users of a first entity and users of a second entity, or are dedicated to the users of the second entity to support a network slice and/or access to an application service for end devices associated with the second entity. The service may manage access and use of radio frequencies associated with the first and second entities based on subscription information and location of the end devices associated with first and second entities. The service may further include enabling inter-network handovers associated with end devices associated with end devices associated with the second entity.
Abstract:
Systems and methods described herein enable premium session retainability for differentiation of services with respect to network function failures. A first network function of a core network obtains a session retention indicator during establishment of a protocol data unit (PDU) session. The first network function calculates a compute footprint for the first network function to support the PDU session and any other premium sessions currently serviced by the first network function. An orchestration device receives the compute footprint and provisions a second network function based on the compute footprint. The first network function and the second network function perform data replication of state information for the PDU session to allow premium sessions to continue with no or minimal interruption in the event of a failover scenario.
Abstract:
A computer device receives user parameters for an Over-The-Air (OTA) update campaign. The parameters include a number of user equipment (UE) devices to receive an OTA update, a device type to receive the OTA update, a file size of an OTA update file, and a service level agreement parameter for the OTA update campaign. The computer device generates an estimate for conducting the OTA update campaign based on the user parameters and predicted network conditions, provides the estimate to a user, and receives a request for conducting the OTA update campaign using the user parameters. The request includes identifiers for the UE devices and the OTA update file. The computer device generates, based on the request, a schedule to perform the OTA update on the UE devices in accordance with the service level agreement parameter, and instructs the UE devices to perform the OTA update based on the schedule.
Abstract:
A system may receive user device information that includes a location associated with the user device and an identifier of a base station associated with the location and receives load information associated with the base station. The system may determine, based on the user device information and the load information, whether congestion is predicted and perform traffic throttling in response to determining the congestion is predicted. A schedule for adjusting the traffic throttling is determined and the traffic throttling is adjusted based on the schedule.