Abstract: A method and system for controlling transmission of signaling between a first access node and a second access node, in a system where the first access node and second access node are each configured to provide respective wireless coverage and service. An example method includes monitoring a total volume of data communication between the first access node and the second access node and, based at least on the monitoring, controlling a rate of periodic control signaling between the first access node and the second access node. In a dual-connectivity implementation, the method could apply, for instance, to control a rate at which the second access node transmits data-usage reports (e.g., second-RAT usage reports) to the first access node.

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 a level of fading of the first air-interface connection with a level of fading 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: 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: A source access node that is configured to hand over a wireless User Equipment (UE) to a target access node. A radio wirelessly receives a measurement report from the UE that characterizes signal strength for the target access node, the signal strength for the source access node, and UE capabilities for the UE. Baseband circuitry determines to hand over the UE to the target access node based on the measurement report. The baseband circuitry receives UE load information from the target access node that indicates UE loads for the frequency bands of the target access node. The baseband circuitry determines UE capabilities for the overloaded frequency bands. The baseband circuitry transfers handover instructions to the UE that direct the UE to remove UE capabilities for the overloaded frequency bands. The UE updates the UE capabilities list and hands over to a non-overloaded frequency band of the target access node.

Abstract: A method and system for controlling maximum quantity of concurrent air-interface connections with an access node. An example method includes a tracking an aggregate rate of data flow served by the access node per time of day. And the example method includes, based on the tracking, determining what aggregate rate of data flow the access node tends to serve at a given time of day. Further, the example method includes, based on the determined aggregate rate of data that the access node tends to serve at the given time of day, (ii) determining a maximum limit on quantity of concurrent air-interface connections with the access node, and (iii) proactively configuring the access node to apply, at the given time of day, the determined maximum limit on quantity of concurrent air-interface connections with the access node.

Abstract: Dynamically limiting uplink transmit power of wireless devices that are known to be within range of a dense cluster or quantity of access nodes. Wireless devices can report identifiers of nearby access nodes. Responsive to determining a large quantity of identifiers from a wireless device in a specific location, the maximum allowable transmit power of the wireless device (or other wireless devices in the same area) can be reduced Power can be reduced for HPUEs as well as LPUEs.

Abstract: A wireless communication network serves a wireless User Equipment (UE) over a backhaul link. A wireless network core identifies a wireless access node and a radio band for the wireless UE. The wireless network core selects a backhaul data rate for the wireless UE based on the radio band for the wireless UE. The wireless network core exchanges user data with the wireless access node over the backhaul link using the selected backhaul data rate. The wireless access node exchanges the user data with the wireless network core over the backhaul link using the selected backhaul data rate. The wireless access node wirelessly exchanges the user data with the wireless UE over the radio band.

Abstract: Methods and systems for preventing or delaying handovers to target access nodes that are experiencing intermodulation distortion. Ensuring service quality in dual-connectivity (EN-DC) wireless networks includes determining that a target access node for a handover of a wireless device is experiencing an intermodulation distortion level that exceeds a first threshold, and adjusting handover thresholds to delay the handover of the wireless device to the target access node. If the handover is necessary, dual-connectivity is disabled for the wireless device.

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: A wireless User Equipment (UE) controls a wireless network slice type that has slice requirements. In the UE, source Radio Resource Control (RRC) circuitry exchanges source signaling with a source Access and Mobility Management Function (AMF). During the exchange of the source signaling, target RRC circuitry exchanges target signaling with target AMFs and determines AMF characteristics. The target RRC circuitry compares the AMF characteristics to the slice requirements and selects one of the target AMFs based on the comparison. The source or target RRC circuitry exchange additional target signaling with the selected one of the target AMFs to use the wireless network slice type. User-plane circuitry exchanges user data with the wireless network slice which is controlled by the selected target AMF.

Abstract: A method and system to control configuration of a narrowband carrier within frequency bandwidth of a wideband carrier, where the frequency bandwidth of the wideband carrier defines a plurality of frequency segments. An example method includes selecting one of the frequency segments of the frequency bandwidth of the wideband carrier on which to define the narrowband carrier, with the selecting being based on the one frequency segment having a lowest level of noise among the plurality of frequency segments. And the example method may then further include, based on the selecting, configuring the narrowband carrier on the selected frequency segment of the frequency bandwidth of the wideband carrier rather than on another frequency segment of the plurality of frequency segments.

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: Systems and methods are provided for managing coverage access for wireless devices. A method includes setting a retransmission rate threshold within a wireless network and monitoring a retransmission rate within the wireless network. The method further includes comparing the monitored retransmission rate to the retransmission rate threshold and restricting wireless device access to at least one selected area within the wireless network when the monitored retransmission rate meets the retransmission rate threshold. The area is selected based on signal performance parameters.

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 method and system for controlling connectivity in a wireless communication system that includes a first cell and a second cell, when the first cell and the second cell are both candidates to serve a given user equipment device (UE). An example method includes determining a first Radio-Resource-Control (RRC)-connection-establishment failure rate of the first cell, where the first RRC-connection-establishment failure rate of the first cell is based on one or more instances of RRC-connection-establishment failure experienced in the first cell. And the method includes using at least the determined first RRC-connection-establishment failure rate of the first cell as a basis to control whether the given UE will be connected with the first cell or rather with the second cell. Further, in this method, the one or more instances of RRC-connection-establishment failure experienced in the first cell encompass RRC-connection-establishment failure experienced by one or more UEs other than the given UE.

Abstract: A wireless communication network serves User Equipment (UEs) over Multiple Input Multiple Output (MIMO) layers. A primary access node wirelessly serves the UEs over a primary amount of MIMO layers in a primary radio channel having a primary channel size. A secondary access node wirelessly serves the UEs over a secondary amount of MIMO layers in a secondary radio channel having a secondary channel size. The primary access node selects a new primary channel size and a new secondary channel size based on the primary amount of MIMO layers and the secondary amount of MIMO layers. The primary access node wirelessly serves the UEs over the primary amount of MIMO layers in the primary radio channel having the new primary channel size. The secondary access node wirelessly serves the UEs over the secondary amount of MIMO layers in the secondary radio channel having the new secondary channel size.

Abstract: A wireless communication network serves a wireless User Equipment (UE) and comprises a wireless access node and a support access node. The wireless access node determines packet drop rate for the support access node. The wireless access node determines an add threshold for the support access node based on the packet drop rate for the support access node. The wireless access node determines an add value for the support access node and determines when the add value is greater than the add threshold. When the add value is greater than the add threshold, the wireless access node signals the support access node to serve the wireless UE and signals the wireless UE to attach to the support access node. In response, the support access node wirelessly transfers user data for a wireless communication service to the wireless UE.

Abstract: Systems and methods are provided for dynamically modifying an antenna profile to increase network performance. Initially, at a first node communicating using a first wireless communication protocol, such as 4G, locations of a plurality of second nodes communicating using at least second wireless communication protocol, such as 5G, are determined. Performance criteria is analyzed of one of more of the plurality of second nodes. Based on the determined locations and the analyzed performance criteria, the antenna profile is dynamically adjusted to increase a width of a beam associated with the first node.

Abstract: Methods are provided for dynamically deactivating synchronization signal block (SSB) beams based on uplink noise. Uplink noise is monitored at a cell site over a configurable period of time. Upon the uplink noise being determined to be above a threshold value, SSB beams corresponding to user equipment that are contributing to the uplink noise are determined. Based on a magnitude of the uplink noise at the cell site, one or more SSB beams of the SSB beams are dynamically deactivated at the cell site.

Abstract: Selecting combinations of antennae of a wireless device based on transmission type includes determining a transmission type of a transmission between the wireless device and an access node and, based on the transmission type, instructing the wireless device to utilize different antenna configurations, including 5G EN-DC, MIMO, mm-wave, and other combinations. The different antenna configurations comprise different combinations of antennae of the wireless device.