Abstract: A wireless user device wirelessly receives an indication of selected resource blocks in a frequency channel that are selected for radio signal measurement and unselected resource blocks in the frequency channel that are unselected for the radio signal measurement. The wireless user device wirelessly measures a radio signal metric for the selected resource blocks in the radio channel and does not measure the radio signal metric for the unselected resource blocks in the radio channel. The wireless user device wirelessly transfers the radio signal metric for the selected resource blocks in the radio channel. The wireless user device wirelessly receives a schedule for the selected resource blocks in the radio channel. The wireless user device wirelessly receives data over the selected resource blocks in the radio channel based on the schedule.

Abstract: A wireless access node control Multiple Input Multiple Output (MIMO) layers for a User Equipment (UE). A radio wirelessly exchanges network signaling with the User Equipment (UE) and exchanges the network signaling with baseband circuitry. The baseband circuitry exchanges the network signaling with the radio. The baseband circuitry determines a UE capability and identifies radio band status for the UE. The baseband circuitry selects a number of the MIMO layers for the UE based on the UE capability and the radio band status. The baseband circuitry precodes user data into precoded data for the selected number of MIMO layers and transfers the precoded data to the radio. The radio receives the precoded data from the baseband circuitry and wirelessly transmits the precoded data to the UE over the selected number of MIMO layers.

Abstract: Methods and systems are provided for dynamically detecting and correcting the deactivation of beamforming from an antenna. One or more users are identified as present within a particular geographic area typically served by beamforming, and the average signal strength of the one or more user devices is monitored. If a threshold level of degradation of the average signal strength is detected, then a beamforming status is determined for one or more of the antennas serving the user device or devices. Based on the determination, corrective measures are taken and beamforming is reactivated.

Abstract: A wireless user device uses a wireless network slice. To use the slice, the wireless user device exchanges source signaling with a source Access and Mobility Management Function (AMF). During the exchange of the source signaling, the wireless user device exchanges target signaling with target AMFs. The wireless user device determines AMF characteristics of the target AMFs based on the target signaling. The wireless user device selects one of the target AMFs based on the AMF characteristics and slice requirements of the wireless network slice. The wireless user device exchanges slice signaling with the selected one of the target AMFs, and in response, exchanges data with the wireless network slice.

Abstract: Systems and methods are provided for improving quality and coverage of a VoNR session on a user device. When a user device is currently engaged in a VoNR session having a voice signal and a data signal, at least one KPI is monitored. The KPI is an indicator that can indicate the quality of the VoNR session, such as RSRP, RSRQ, SINR, or the like. A threshold for the KPI is determined. Once the threshold is met, a handover is initiated for the voice signal without initiating a handover for the data signal.

Abstract: Systems and methods are provided for dynamically determining optimal 5G New Radio (NR) configuration for dual Radio Access Technology (RAT) technology capable user equipment (UE). After receiving an indication a UE has connected to a particular sector, an eNodeB having a nonstandalone (NSA) 5G node and a standalone (SA) 5G node requests historical information or geotagged data corresponding to the UE. The eNodeB determines a NSA signal quality for a 5G node of the eNodeB and a SA signal quality of the 5G SA node. Based on a delta of the NSA signal quality and the SA signal quality being below a predetermined threshold, the eNodeB uses the historical information or the geotagged data to dynamically assign the UE to the NSA 5G node or the SA 5G node.

Abstract: A wireless communication system wirelessly communicates through a physical barrier using beamforming. A serving transceiver determines and transfers downlink beamforming and power information to a network transceiver. The serving transceiver may determine the downlink power information based on the beamforming information to increase downlink power based on a beamforming aperture. The network transceiver wirelessly receives the downlink beamforming and power information from the serving transceiver. The network transceiver wirelessly receives a downlink signal from a wireless access node. The network transceiver beamforms and amplifies the downlink signal based on the downlink beamforming and power information. The network transceiver wirelessly transfers the beamformed and amplified downlink signal to the serving transceiver. The serving transceiver wirelessly receives the beamformed and amplified downlink signal from the network transceiver.

Abstract: Systems and methods are provided for extending coverage of a telecommunication network includes a user device and a cell site. The cell site includes a node management system communicatively coupled to the user device. The node management system is structured to receive one or more signal strengths associated with one or more target nodes, determine the one or more signal strengths are within a delta range threshold, determine one or more multi-technology thresholds associated with the one or more target nodes, determine a lowest multi-technology threshold based on the one or more multi-technology thresholds, and assign the user device to the one or more target nodes associated with the lowest multi-technology threshold determined.

Abstract: A method and system to control selection of a serving cell for a UE. An example method includes determining respectively for each candidate cell of multiple candidate cells a maximum backhaul bit rate of the candidate cell, determining that a given one of the candidate cells has a highest determined maximum backhaul bit rate among the candidate cells, and based at least on the determining that the given candidate cell has the highest determined maximum backhaul bit rate among the candidate cells, selecting the given candidate cell to be the serving cell for the UE. Further, the method could also include basing the selection on consideration of a backhaul packet-drop rate of the given cell. In example implementations, the selection of a serving cell could be a selection of a PCell for carrier-aggregation service, an anchor cell for dual-connectivity service, or a secondary cell for dual-connectivity service, among other possibilities.

Abstract: A method and system for controlling carrier load in a wireless communication system that supports multiple user equipment devices (UEs) each being primarily connected with a first access node on a first carrier and each having a respective secondary connection for dual-connectivity service. An example method includes (i) monitoring a distribution of the respective secondary connections of the UEs among being on a second carrier and being on a third carrier, the third carrier having wider bandwidth than the second carrier, (ii) based on the monitoring, determining that at least a predefined threshold portion of the UEs have their secondary connections on the third carrier rather than on the second carrier, and (iii) based at least on the determining, taking action to control load on the first carrier, such as limiting a maximum number of UEs allowed to be concurrently connected with the first access node on the first carrier.

Abstract: Systems and methods are provided for dynamically allocating SSB beams. It is determined that a relay device and a plurality of user devices are communicating with a cell site by way of a first beam. A quantity of user devices communicating by way of the first beam is then determined. It is determined that this quantity of user devices exceeds a predetermined threshold. A second beam that has a signal strength that is lower than the first beam is identified. The signal strengths are compared between the first beam and the second beam. It is determined that the difference between the signal strength of the first beam and the signal strength of the second beam is below a predetermined amount. The second beam is then dynamically reassigned to at least a portion of the user devices.

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: Systems and methods are provided for dynamically changing a channel state information (CSI) reporting protocol by adjusting CSI reporting frequency for a wireless device communicating with an access node within a wireless network. The methods and systems identify a power headroom (PHR) value at a particular wireless device and adjust the CSI reporting frequency when the PHR satisfies a predetermined threshold. The method changes the CSI reporting frequency for the wireless device to enable more frequent CSI reporting over a primary path to the access node to facilitate reallocation of resources.

Abstract: Methods and systems are provided for dynamically disabling beamforming functionality of one or more frequency bands. For example, a frequency band may have beamforming enabled. One or more user devices may be connected to the frequency band having beamforming enabled for access to a wireless telecommunications network. User devices connected with the frequency band may be at various locations of a network cell of the wireless telecommunications network (e.g., a cell center, middle cell, cell edge). Fading information may be received by one or more of the user devices connected with the frequency band. One or more fading channel measurements of the first frequency band may be above a threshold. In some embodiments, a fading channel measurement of the first frequency band is higher than another available frequency band having beamforming enabled. As such, beamforming of the first frequency band can be dynamically disabled.

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: Systems and methods are provided for dynamically modifying beamforming weights based on MU-MIMO user device pairings. A quantity of MU-MIMO user device pairings served by a node is determined. Based on a maximum quantity of potential MU-MIMO user device pairings for the node, it is determined that a quantity of the MU-MIMO user device pairings for the node is below a threshold. Because the quantity of the MU-MIMO user device pairings is below the threshold, beamforming weights are modified to widen a vertical main lobe to increase the quantity of MU-MIMO user device pairings.

Abstract: A wireless access node serves a wireless User Equipment (UE) over radio frequency bands that comprise layers. The layers comprise parallel signals that share individual resource blocks in the radio frequency bands. In the wireless access node, radio circuitry wirelessly receives information from the wireless UE that indicates received signal strengths for the radio frequency bands. In the wireless access node, processing circuitry determines layer amounts for the radio frequency bands. The processing circuitry selects one of the radio frequency bands that has an adequate one of the received signal strengths and a higher one of the layer amounts. The radio circuitry wirelessly exchanges user data with the wireless UE over the selected one of the radio frequency bands to serve the wireless UE.

Abstract: A mechanism for controlling operation of a first access node that supports operation according to a first radio access technology (RAT) but does not support dual-connectivity operation according to the first RAT and a second RAT. A system detects a high extent of occurrences of dual-connectivity-capable user equipment devices (UEs) being connected with the first access node when the dual-connectivity-capable UEs could instead connect with a second access node that supports the dual-connectivity operation. And in response, the first access node blocks dual-connectivity-capable UEs from being connected with the first access node while allowing UEs that are not dual-connectivity capable to be connected with the first access node.

Abstract: Methods, media, and systems are provided for restricting an uplink Multiple Input Multiple Output (MIMO) assignment based on fading, battery data, or location data associated with a user device in an mmWave system. Fading data, location data, or battery data is received from one or more user devices. Based on the received data, a determination is made using the data received (e.g., determining the battery data of the user device is below a threshold or determining the location of the user device). In response, the assignment of the user device to an uplink MIMO layer of available MIMO layers is restricted. The restricted uplink MIMO layer is a higher MIMO layer than another MIMO layer of the available MIMO layers. In response to restricting the assignment, the user device may be assigned to an available MIMO layer that is a lower MIMO layer than the restricted MIMO layer.

Abstract: Methods and systems for adjusting reference signal reporting based on path loss and fading and cell edge conditions experienced by wireless devices in 5G EN-DC networks. As the path loss increases, a period between reference signal reports (or a frequency of reference signal reports) can be increased. This ensures continued quality of service for the wireless devices. Reference signals can include SRS, DMRS, PTRS, etc.