Abstract: In a wireless access node, a radio receives measurement reports from wireless User Equipment (UEs) that indicate past radio measurements taken at measurement locations. Baseband circuitry processes the measurement reports to determine radio metric variances at the measurement locations. The baseband circuitry determines UE locations for the wireless UEs. The baseband circuitry selects measurement time periods for the wireless UEs based on the radio metric variances at the measurement locations that correspond to the UE locations for the wireless UEs. The radio wirelessly transfers the selected measurement time periods to the wireless UEs. The wireless UEs use the selected measurement time periods to take the future radio measurements at the UE locations.

Abstract: Systems, methods, and computer-readable media herein dynamically adjust the number of elements active within a neighboring base station in order to reduce the back lobe overlap and thus reduce the interference caused by such an overlap. User devices assigned to communicate with an antenna array are monitored to determine if they are experiencing a decreased level of performance which may be caused by an overlapping back lobe from a neighboring cell site. If the user device's performance falls below a threshold value, the gain associated with the neighboring cell site is dynamically reduced in order to reduce the back lobe overlap.

Abstract: Network circuitry within a wireless User Equipment (UE) transmits a registration request to a first Wireless Access Node (WAN) over a wireless communication link. In response, the network circuitry receives a UE capability inquiry from the first WAN and transmits it to user circuitry within the wireless UE. The user circuitry calculates Key Performance Indicator (KPI) information based on the wireless communication link, accesses UE capability information of the UE based on chipset and enabled functionality in the UE, generates intelligent UE capability information by modifying the UE capability information based on the KPI information, and transmits the intelligent UE capability information to the network circuitry.

Abstract: Methods are provided for enabling network operators to play a key role in allowing Cellular Unmanned Aerial Vehicles (UAVs) to recharge batteries based on RF parameters and/or a class of service the UAVs provide to users/customers. For example, a particular mobile network operator (MNO) has a UAV charging station deployed in it leased towers where it has base stations (eNB/gNB) deployed. The MNO can provide charging as a service to the UAVs. When more than one drone is requesting a charge, the MNO can prioritize which UAV has the highest priority. In some aspects, the MNO can prioritize the UAVs for charging based on a Quality of Service identifier. Additionally or alternatively, the MNO can prioritize the UAVs for charging based on a Network Slice Selection Assistance Information indicator.

Abstract: A wireless access node controls Discontinuous Reception (DRX) for User Equipment (UEs). The wireless access node exchanges user data with network elements over backhaul links and determines backhaul link performance. The wireless access node selects DRX schedules for the UEs based on the backhaul link performance and transfers the DRX schedules to the UEs. The UEs power their wireless receivers per their DRX schedules. The wireless access node transfers data notices to the UEs per the DRX schedules. The UEs wirelessly receive the data notices per their DRX schedules. The wireless access node transfers user data to the UEs per the DRX schedules and the data notices. The UEs wirelessly receive the user data per the DRX schedules and the data notices.

Abstract: A method of initiating handover of a wireless device includes determining one or more of a low battery condition, a low power headroom, and a high buffer status of a wireless device. The wireless device can be attached to a first access node deploying multiple radio access technologies over a first coverage area. The method further includes identifying a second access node deploying a single radio access technology over a second coverage area encompassing a location of the wireless device, and initiating handover of the wireless device from the first access node to the second access node based at least in part on the one or more of the low battery condition, low power headroom, and high buffer status of the wireless device. Systems and devices relate to initiating handover of a wireless device.

Abstract: Systems and methods are provided for dynamically triggering a handover of a wireless device based on a throughput measurement of a source node and a target node on a primary path. The method includes comparing the first throughput measurement at the source access node for the primary path to the second throughput measurement at the target access node or comparing both throughput measurements to predetermined criteria and making a handover determination for the wireless device based on the comparison.

Abstract: When a first access node is considering setup of dual-connectivity service for a UE, the first access node could take into consideration the MU-MIMO grouping efficiency respectively of each of one or more candidate second access nodes, in order to decide whether to set up the dual-connectivity service for the UE and/or to decide which of the multiple second access nodes to use for the UE's dual-connectivity service. MU-MIMO grouping efficiency of a given access node could be a representative count of UEs that the access node has provided with MU-MIMO service per unit time. Thus, for instance, the first access node may decide to use a given candidate second access node for the dual-connectivity service of the UE, with the decision being based on the given candidate second access node having a higher MU-MIMO grouping efficiency than one or more other candidate second access nodes.

Abstract: A method of delivering content to a user equipment (UE). The method comprises collecting radio operation data by a monitor application executing on a communication processor of the UE; sending the radio operation data by the monitor application to a data analysis application executing on a computer system; analyzing the data by the data analysis application to determine a device technology of the UE, a history of high throughput radio usage of the UE, a history of medium throughput radio usage of the UE, a history of low throughput radio usage, a history of communication latency, and a history of cell sites the UE attached to; and providing a report on the UE including the device technology of the UE and the history of radio usage of the UE by the computer system to a third party for use in delivering content in a format selected based on the report.

Abstract: Methods and systems are provided for dynamically capping an MCS index. A determination that one or more user devices are serviced by a sector of a cell site that has a Sector Power Ratio (SPR) above a threshold is made. Based on the SPR being above the threshold, the MCS index of the one or more user devices is capped. In response to the capped MCS index, a first Quadrature Amplitude Modulation (QAM) value is assigned to at least one of the one or more user devices based on a triangulation area corresponding to a location of the at least one of the one or more user devices.

Abstract: Prioritizing resource allocation for relay nodes that have higher bandwidth capabilities, such as 5G EN-DC, versus other relay nodes that do not have such capabilities. The bandwidth capability can be based on a channel bandwidth allocation for different relay nodes, with the assumption that 5G or higher relay nodes will be able to utilize higher bandwidth channels.

Abstract: A method and system for controlling uplink-path switching of a user equipment device (UE) when the UE has at least two co-existing air-interface connections including a first air-interface connection with a first access node and a second air-interface connection with a second access node, and where one of the first and second air-interface connections defines a primary uplink path of the UE. An example method includes (i) predicting that a handover trigger for handover of the UE from the first access node to a third access node will occur and (ii) responsive to at least the prediction that the handover trigger will occur, but before the handover trigger occurs, forgoing application of at least a portion of an uplink-path-switch control process for dynamically controlling which of the UE's connections will be set as the UE's primary uplink path.

Abstract: When a first access node is considering setup of dual-connectivity service for a UE, the first access node could take into consideration a group delay variation of each of one or more candidate second access nodes, in order to decide whether to set up the dual-connectivity service for the UE and/or to decide which of the multiple second access nodes to use for the UE's dual-connectivity service. For instance, the first access node may decide to use a given candidate second access node for the dual-connectivity service of the UE, with the decision being based on the given candidate second access node having a lower group delay variation than one or more other candidate second access nodes.

Abstract: Systems and methods are provided for cell prioritization. Methods involve monitoring resource usage on a first cell and comparing the monitored resource usage on the first cell to a predetermined threshold. The method additionally includes receiving a connection request from a hybrid wireless device capable of communicating using the first RAT and the second RAT and assigning the hybrid wireless device to the second cell when the monitored resource usage on the first cell meets the predetermined threshold.

Abstract: A system and method of managing network resources is provided, in which a noise threshold for an access node is set, the access node being configured for communication in both of a first and a second communication mode; a noise parameter in a band of the first communication mode is monitored; a join request is received from a wireless device, the wireless device being configured for communication in both of the first and the second communication mode; the noise parameter is compared to the noise threshold; in response to a determination that the noise parameter does not exceed the noise threshold, the wireless device is assigned to the first communication mode; and in response to a determination that the noise parameter exceeds the noise threshold, the wireless device is assigned to the second communication mode.

Abstract: A base station of a radio access network (RAN) can be configured to prioritize standalone (SA) 5G traffic over non-standalone (NSA) 5G traffic in certain situations, to improve user experiences associated with 5G-specific services implemented via SA 5G networks. The base station can generally instruct 5G user equipment (UE), such SA UEs and NSA UEs, to prioritize camping on an SA priority band. However, if a RAN load level is at or above a threshold, the base station can instruct NSA UEs to prioritize camping on a different priority band in order to relieve congestion on the SA priority band and/or preserve remaining capacity on the SA priority band for SA UEs. When the RAN load level is above a threshold, the base station can also, or alternately, at least briefly delay traffic associated with NSA UEs to prioritize transmission of traffic associated with SA UEs.

Abstract: Methods and systems are provided for dynamically disabling beamforming functionality of a first frequency band. The first frequency band is determined to have beamforming enabled. The user device is detected as being connected to the first frequency band for access to a wireless telecommunications network. A first fading channel measurement of the first frequency band is determined to be above a threshold. In response to determining that the first fading channel measurement is above the threshold, beamforming of the first frequency band is dynamically disabled.

Abstract: A system and method of managing network resources is provided, in which a noise threshold for an access node is set, the access node including a first plurality of resource blocks corresponding to communication in a first communication mode and a second plurality of resource blocks corresponding to communication in either of the first communication mode or a second communication mode; a noise parameter for the second plurality of resource blocks is monitored; the noise parameter is compared to the noise threshold; and in response to a determination that the noise parameter exceeds the noise threshold, access to the second plurality of resource blocks for communication in the first communication mode is restricted.

Abstract: A method and system for controlling data split of a dual-connected user equipment device (UE) when the UE has at least two co-existing air-interface connections including a first air-interface connection with a first access node and a second air-interface connection with a second access node. An example method includes (i) comparing an aggregate frequency bandwidth of the first air-interface connection with an aggregate frequency bandwidth of the second air-interface connection, (ii) based at least on the comparing, establishing a split ratio that defines a distribution of data flow of the UE between at least the first air-interface connection and the second air-interface connection, and (iii) based on the establishing, causing the established split ratio to be applied. Further the method could include using the comparison as a basis to set one of the UE's air-interface connections as the UE's primary uplink path.

Abstract: A Radio Access Network (RAN) wirelessly serves a User Equipment (UE) over a frequency channel based on a radio signal metric. The RAN comprises baseband circuitry and a radio. The baseband circuitry determines when multiple Physical Cell Identifiers (PCIs) are available to serve the UE. In response, the baseband circuitry selects some resource blocks in the frequency channel and generates a UE instruction to measure the radio signal metric for the selected resource blocks. The radio receives the UE instruction for the baseband circuitry and wirelessly transfers the UE instruction to the UE. The radio wirelessly receives a measurement report from the UE that indicates the radio signal metric for the selected resource blocks. The radio transfers the measurement report to the baseband circuitry. The baseband circuitry receives the measurement report and responsively schedules the UE in the selected resource blocks based on the radio signal metric.