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.

Abstract: A wireless communication network to serve a wireless User Equipment (UE) with a wireless communication service over multiple wireless communication links. The wireless communication network comprises a primary access node, a first support access node, and a second support access node. The primary access node receives signal metrics for the support access nodes from the wireless UE, determines add thresholds for the support access nodes based on the amount of active UEs served by the primary access node, and converts the signal metrics for the support access nodes into add values for the support access nodes. When the add values are greater than the add thresholds, the primary access node signals the corresponding ones of the support access nodes to serve the wireless UE. The corresponding ones of the support access nodes exchange user data with the wireless UE.

Abstract: A Radio Access Network (RAN) is configured to serve wireless User Equipment (UEs). The RAN comprises a Baseband Unit (BBU) and a Tower Mounted Amplifier (TMA). The BBU determines an amount of proximate wireless UEs that have transmit power levels that fall below a proximity threshold and when the amount of the proximate UEs exceeds a concentration threshold. When the proximate UEs exceeds the concentration threshold, the BBU schedules the proximate wireless UEs to use proximate UE Transmit Time Intervals (TTIs) and schedules other wireless UEs to use other TTIs. The BBU transfers control signals to deactivate TMA amplification during the proximate UE TTIs and to activate the TMA amplification during the other TTIs. The TMA receives UE signals, and in response to the control signals, deactivates TMA amplification on UE signals during the proximate UE TTIs and activates TMA amplification on UE signals during the other TTIs.

Abstract: Methods and systems are provided for limiting transmit power for one or more devices associated with a wireless telecommunications network. The methods can include determining if a noise level is at or above a threshold value. The methods can also include requiring one or more devices to limit transmit power on communications to the base station.

Abstract: In a wireless communication network, a wireless network core and wireless access nodes exchange user data using data rates. The wireless access nodes wirelessly exchange the data with the wireless UE over radio bands. The wireless network core determines a data rate level for the wireless UE based on the data rates. Subsequently, the wireless network core identifies a serving wireless access node and a serving radio band. The wireless network core determines a new data rate based on the data rate level and the serving radio band. The wireless network core and the serving wireless access node exchange new data using the new data rate. The serving wireless access node wirelessly exchanges the new data with the wireless UE over the serving radio band.

Abstract: Systems and methods are provided for setting handover thresholds and dynamically initiating handovers based on antenna parameters and wireless device location. A processor identifies an antenna having a sector power ratio exceeding a predefined threshold. Undesirable locations for wireless devices relative to the antenna are determined based on stored information and a first handover threshold is set for wireless devices served by the antenna and in undesirable locations. When a wireless device is found in the undesired location and the sector power ratio exceeds the predefined threshold, the first handover threshold is met. A handover may be initiated.

Abstract: A cell site router communicatively coupled to an access node and configured to transmit data between the access node and an external network is further configured to determine a packet loss occurring at a port of the cell site router and adjust a size of a buffer of the cell site router based on the packet loss. The buffer can be associated with the port and/or a RAT associated with the port, and a latency requirement of the data transmission can be considered when adjusting buffer sizes.

Abstract: A method and system to control carrier aggregation in a wireless communication system including a first access node and a second access node, where the first access node has a first respective backhaul connection, where the second access node has a second respective backhaul connection, where the first access node supports serving user equipment devices (UEs) with standalone connectivity, and where the first and second access nodes cooperatively support serving UEs with dual connectivity. A method includes detecting that the second respective backhaul connection of the second access node is threshold heavily loaded. And the method includes, based at least in part on the detecting that the second respective backhaul connection of the second access node is threshold heavily loaded, causing the first access node to suppress an extent of carrier-aggregation service that the first access node will provide to any standalone-connected UEs, to help free up capacity for dual-connectivity service.

Abstract: Load balancing based on pairing efficiency and channel bandwidth includes comparing pairing efficiency metrics of wireless devices attached to different wireless air interfaces, comparing an aggregate channel bandwidth of carriers using each wireless air interface, and offloading wireless devices from one carrier to another carrier based on the comparisons of the pairing efficiency metrics and the aggregate channel bandwidth. In an embodiment, wireless devices are offloaded from a 5G NR wireless air interface to a 4G LTE wireless air interface having a higher pairing efficiency and aggregate channel bandwidth.

Abstract: Preserving a bandwidth of a mobile backhaul by reducing a quantity of antenna elements that can concurrently deploy two or more radio air interfaces including 4G LTE and 5G NR. The reduction of antenna elements using concurrent mode may be performed incrementally, based on the backhaul bandwidth usage meeting different predefined thresholds.

Abstract: Systems and methods provide for assignment of wireless devices to an access node based on the transmission power capabilities of the access nodes and the wireless devices. The method may be applied to mobile wireless devices in overlapping coverage areas such that the transmission power capabilities of both the access node and the wireless device are considered during node assignment.

Abstract: A method and system for dynamically controlling connection-request transmission in a cell provided by an access node, the access node supporting access attempts by user equipment devices (UEs), each access attempt including the UE engaging in random access signaling with the access node and the UE then engaging in up to a maximum allowed number of connection-request transmissions to the access node in an effort to ensure successful receipt by the access node of a connection request from the UE, where an access block occurs if the access node does not successfully receive connection-request transmission from the UE through the maximum allowed number connection-request transmissions. An example method includes (i) determining an extent to which the cell has experienced such access blocks and (ii) using the determined extent as a basis to dynamically set a maximum allowed number of connection-request transmissions per access attempt in the cell.

Abstract: A method and system for controlling dual-connectivity service in a system where a first access node provides service on a first air interface and a second access node provides service on a second air interface, and where (i) in a single-connection-uplink mode for the dual-connectivity service, uplink user-plane communication is carried on just the second air interface and (ii) in a split-uplink mode for the dual-connectivity service, uplink user-plane communication is split between the first air interface and the second air interface. An example method includes determining an uplink Multi-User Multiple-Input-Multiple-Output (MU-MIMO) grouping efficiency of the second air interface and, based on the determined uplink MU-MIMO grouping efficiency of the second air interface, controlling whether to provide the dual-connectivity service in the single-connection-uplink mode or rather in the split-uplink mode.

Abstract: Methods and systems for selecting donor access nodes for relay nodes capable of 5G EN-DC, based on conditions measured at a wireless backhaul between the relay nodes and donor access nodes, or a mobile backhaul between a cell site router and a core network. Mobile backhaul conditions can include a packet loss at a cell site router, and wireless backhaul conditions can include interference in a wireless air interface. The interference may be measured for specific portions of resources of the wireless air interface, and the specific portions may be correlated with radiofrequency (RF) channels deployed by each candidate donor access node.

Abstract: A method and system identify a congestion parameter for multiple ports of a cell site router (CSR) and determine a characteristic of a wireless device communicating using the CSR. The method and system further assign the wireless device to a port of the CSR based on the characteristic of the wireless device and the congestion parameter. The method and system have the effect of assigning wireless devices having more capabilities to ports having the most congestion as the more capable devices are more likely to have sufficient retransmission power in the event of congestion.

Abstract: Systems for mitigating interference in a massive MIMO wireless network include an access node, a plurality of antennae communicatively coupled to the access node, and a processor communicatively coupled to the access node. The processor can be configured to perform operations including communicating with one or more wireless devices within a wireless sector utilizing one or more antennae from the plurality of antennae, and monitoring an interference level within the wireless sector. Upon the interference level meeting a threshold, the processor may be configured to utilize fewer antennae to communicate with the one or more wireless devices. Conversely, upon the interference level not meeting the threshold, the processor may be configured to utilize more antennae to communicate with the one or more wireless devices.

Abstract: Methods and systems are provided for optimizing EN-DC anchor selection in a multi-band and multi-anchor network. One or more of a sector power ratio, a front to back ratio, or a downlink tonnage is determined for a plurality of nodes comprising one or more eNodeBs and one or more gNodeBs. Based on the determining, an eNodeBs of the one or more eNodeBs or a gNodeB of the one or more gNodeBs is selected as an EN-DC anchor of the multi-band and multi-anchor network.

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 insertion loss of the first air-interface connection with a level of insertion loss 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 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 multiple-input-multiple-output (MIMO) support of the first air-interface connection with a level of MIMO support 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.