Abstract: A distributed data platform is able to predict whether data stored on a first network infrastructure component will be needed by a second network infrastructure component and prepares the data to be transmitted to the second network infrastructure component. The distributed data platform identifies a plurality of network infrastructure components connected to a network, and identifies data present on each component. The distributed data platform receives an indication that an event has occurred on the network and predicts whether the second network infrastructure component will require data stored by the first network infrastructure component. The distributed data platform prepares the data to be transmitted to the second network infrastructure component, and transmits the data after receiving an indication that the second network infrastructure component requires the data.

Abstract: Various base station enclosures and systems are detailed herein. Such systems can include, a radio unit (RU) and a plurality of cellular antennas. A base station cellular enclosure is present that reduces wind drag. The enclosure can include an airfoil enclosure housing that defines a cavity for housing the plurality of antennas and is at least partially covered in dimples to reduce wind drag.

Abstract: A virtual cell site router, including a first module configured to receive an optical signal from a distributed unit and an optical splitter. The optical splitter can split the optical signal into a first part and one or more second parts. The first part of the signal is directed towards a unit, and the one or more second parts of the signal is directed toward one or more modules configured to monitor an aspect of the network.

Abstract: Embodiments of a device that includes an automotive-specific connector are described herein. The device includes radiofrequency (RF) communication circuitry communicatively coupled to processing circuitry and configured to receive a broadcast digital television signal. The processing circuitry configured to receive a user selection of broadcast digital television content to be obtained. The RF communication circuitry controlled to select a frequency band corresponding to the broadcast digital television content from the broadcast digital television signal. Encoded broadcast digital content is received from the RF communication circuitry and a digital bitstream is decoded to obtain the selected broadcast digital television content therein.

Abstract: The present disclosure is directed to methods and systems for monitoring nodes on a distributed computing network. A distributed computing system can monitor each node within a wireless network to identify when a node is disconnected from the network. The distributed computing system can dynamically perform tasks on behalf of the node until the node is reconnected to the wireless network. In some implementations, the distributed computing system monitors the utilization of the wireless network to identify when the wireless network has the capacity to perform a task.

Abstract: Devices, systems and methods for configuring structures and environs based on detected users and generic or known itineraries are described. A system may include: a hub having a data store, non-transiently storing computer instructions for a hub tracker engine (THE) and for a hub response engine (HRE) and a processor; a tracker node; and a responding device. The HTE instructs operations including fine or coarse user detection, and tracking operations. The system thereby tracks the user within a structure and determines whether to respond to the user. The HRE configures the responding device as at least one of a current responding device, a next responding device, and a destination responding device. Coarse user detection may include powering-on the tracker node, establishing a tracker link with the hub, communicating a tracker data signal to the hub, and analyzing the tracker data signal for a presence of the user at a location.

Abstract: Devices, systems and processes for identifying and detecting an interfering signal are described. A process may include conducting a scan of one or more frequency bands to obtain at least one scan result and determining therefrom if a response condition has been detected. If so detected, a first frequency band corresponding to the detected response condition may be identified and a response condition action to be performed determined. If no response condition action is to be performed, scanning continues. If a response condition is to be performed two or more available sensors are identified and a first sensor is selected. A scan plan is developed and then initiated by the first sensor. Data from the first sensor is received and analyzed to identify a second frequency band indicative of an interfering signal. Based on at least the scan data, a location for a signal interference source (SIS) may be estimated.

Abstract: An aggregate cell of a cellular network includes a plurality of dispersed modular cells. The modular cells each include a cellular radio and collectively perform the function of a cellular base station. A distributed clock is established by transmitting timing beacons from one or more of the modular cells. Each modular cell receives the timing beacons. Each modular cell that transmits a timing beacon provides a transmission timestamp to a cell controller. Each modular cell that receives a timing beacon provides a reception timestamp to the cell controller. The cell controller schedules signal transmissions from the modular cells based on the transmission and reception timestamps.

Abstract: Embodiments are directed towards systems and methods for selecting, in a Fifth Generation (5G) cellular telecommunication network, a User Plane Function (UPF) of a plurality of UPFs on which to anchor a Protocol Data Unit (PDU) session of a new user equipment (UE) newly appearing on the cellular telecommunication network. The selection is based on: a location of the new UE; a plurality of current loads for each UPF of the plurality of UPFs; a predicted UE load of the new UE based on network data analytics; and predicted UPF loads of the plurality of UPFs as a function of time considering the predicted UE load based on network data analytics from the Network Data Analytics Function. In the UPF selection, the Session Management Function (SMF) gives higher priority to shorter term predicted loads than longer term predicted loads. Also, in the UPF selection, the PDU session of the UE is preferred to attach on the UPF in the current serving area in which the UE is located.

Abstract: Systems, machine-readable media, and methods to control deployment of IoT devices over wireless networks with an adaptive gateway are provided. A gateway device may broadcast on different channels in a first time slot of a time interval. The gateway device may receive a response from a sensor device in a second time slot of the time interval. The gateway device may further communicate to the sensor device in a third time slot of the time interval. The gateway device may receive transmissions from the sensor device in one or more subsequent instances of the fourth time slot of the time interval. Based at least in part on the one or more transmissions from the sensor device, the gateway device may transmit data to one or more computer systems via one or more networks.

Abstract: Processes, computing systems, devices, and automated processes variously perform or include operations to update a cellular device running a container-based operating system. A container management server (CMS) of a cellular network receives a communication from the cellular device over the cellular network. The CMS retrieves a list of containers deployed on the cellular device. The CMS then compares a deployed container from the list to an updated container to identify the deployed container as invalid. The CMS may push the updated container to the cellular device in response to identifying the deployed container as invalid.

Abstract: Embodiments are directed towards systems and methods for user plane function (UPF) and network slice load balancing within a 5G network. Example embodiments include systems and methods for load balancing based on current UPF load and thresholds that depend on UPF capacity; UPF load balancing using predicted throughput of new UE on the network based on network data analytics; UPF load balancing based on special considerations for low latency traffic; UPF load balancing supporting multiple slices, maintaining several load-thresholds for each UPF and each slice depending on the UPF and network slice capacity; and UPF load balancing using predicted central processing unit (CPU) utilization and/or predicted memory utilization of new UE on the network based on network data analytics.

Abstract: A facility for conveying first side of a voice call from a first participant to a second participant is described. Over the duration of the voice call, the facility receives the first side of the call. The facility seeks to forward the received first side of the voice call to a downstream node on a path to the second participant. The facility records the received first side of the call for at least part of the call. The facility identifies a just-ended portion of the voice call for which forwarding of the received first side of the voice call was unsuccessful. In response, the facility transmits to the downstream node the recorded first side of the voice call that coincides with the identified portion of the voice call.

Abstract: A hybrid 5G/DSL service provides an on-premises router device that monitors both wireless and wired data connections to provide optimized service using both connections. A 5G/DSL router can make use of “always available” bandwidth of a DSL connection to avoid overuse of more limited wireless bandwidth while augmenting and/or substituting with wireless bandwidth as needed. A hybrid 5G/DSL service may be especially convenient for rural customers who may not have access to fiber or cable-based data services. Moreover, the 5G/DSL hybrid service may provide a cost effective option for customers who simply want to augment DSL service in limited situations (e.g., for occasional media streaming) rather than paying for “always-available” higher bandwidth connections that remain largely underutilized much of the time.

Abstract: Systems and methods are provided to migrate a set of network functions between control planes of a network slice A and a network slice B; and a migration management unit to manage a gradual staged transfer of a subset of the plurality of network functions originally contained in the control plane of the network slice A to the control plane of network slice B wherein the gradual transfer is a migration of the plurality of network functions in a set of multiple stages to create the subset of the plurality of network functions in the control plane of slice B, wherein each gradual staged transfer includes the migration of a reduced subset of the plurality of network functions contained in the control plane of the network slice A reconfigured to the control plane of the network slice B.

Abstract: Systems and methods are provided for adaptive channel, beamforming, and traffic shaping management in a network including configuring an element management system to monitor, via a distribution unit (DU) and/or a central unit (CU) power and channel traffic at a plurality of cell sites in a network; applying, in response to a detection of a power outage at a cell site, at least one power saving schema including adaptive channel management, adaptive beam management, and/or adaptive traffic management, wherein the systems and methods incrementally reduce power consumption at the cell site by choking at least on channel based on a level of network traffic congestion. The systems and methods further limits users for congested channels, determines a relationship between power reduction as a result of the choking, arranges power to beamforming systems based on the choking, adjusts traffic of one or more applications, and move users of choked channels.

Abstract: Various arrangements for allocating spectrum between a cellular network provider and a secondary operator are presented. A cellular network component of the secondary operator may determine that spectrum at a secondary operator radio unit (RU) is not currently needed. The cellular network component of the secondary operator may cause the spectrum to be released for use by a cellular network operator such that the secondary operator RU is not permitted to use the released spectrum. A cellular network operator RU may then communicate with a first set of user equipment (UE) using the released spectrum. The secondary operator RU and cellular network operator RU may be located at a same location.

Abstract: Systems, methods, and non-transitory, machine-readable media for zero-touch interworking of network control with data platform and analytics in virtualized deployment are disclosed. Responsive to a network service request for service location identifiers, data from data sources may be processed, and indicia of data characteristics may be analyzed to create or develop a data model. Configuration specifications may be created to instantiate a network slice and network services as a function of the data characteristics, conforming to quality of service parameters and service location identifiers. A log mapped to the request may be created and included in a template specifying a data observability framework and resources for the network slice and network services. The slice and services may be instantiated with the configuration specifications, with data services provided to user equipment of the external entity, and with the cellular network consequently providing data services to user equipment.

Abstract: Embodiments are directed towards systems and methods for user plane function (UPF) and network slice load balancing within a 5G network. Example embodiments include systems and methods for load balancing based on current UPF load and thresholds that depend on UPF capacity; UPF load balancing using predicted throughput of new UE on the network based on network data analytics; UPF load balancing based on special considerations for low latency traffic; UPF load balancing supporting multiple slices, maintaining several load-thresholds for each UPF and each slice depending on the UPF and network slice capacity; and UPF load balancing using predicted central processing unit (CPU) utilization and/or predicted memory utilization of new UE on the network based on network data analytics.

Abstract: Systems, devices and automated processes are provided for prolonging backup battery power for RF radio operations at a base station, including a radio controller configured to control routing of power from the backup battery; a detection unit for determining whether a source of commercial power is about to or has failed; a control unit located remotely to communicate with an RF radio controller, a server, and router to change a setting of a required level to reduce the power to the cell; a feedback mechanism responsive to the loss of power to crop the input power; an output control unit to reduce the output power from the RF radio; and a battery controller configured to reduce the draw on the UPS since input power requirement are dropped.