Abstract: Various embodiments comprise systems, methods, and apparatus providing substantially automated provisioning and provisioning management of CPE within a system using unlicensed spectrum so as to ensure that the CPE operate only within an allowed spectral region irrespective of CPA capability. The automated system utilizes an identification of CPE being installed to automatically determine CPE capability, configure the CPE as needed to avoid CPE operation outside of the allowed spectral region, and generate approval-ready CPE credentials suitable for use by a Spectrum Access System (SAS).

Abstract: Configuration information that identifies a plurality of components that define a network is received. Based on the configuration information, a plurality of virtual network function (VNF) instances are caused to be generated on a plurality of general-purpose computing devices to implement the network on the plurality of general-purpose computing devices, each VNF instance corresponding to one of the plurality of components. Based on the configuration information, at least some of the VNF instances of the plurality of VNF instances are configured. Testing data and testing criteria are obtained. The testing data is submitted to the network, and network test results based on the testing data and the testing criteria are output.

Abstract: Methods and apparatus for optimizing antenna beam and performance within a wireless system. In one embodiment, the methods and apparatus utilize so-called “quasi-licensed” CBRS (Citizens Broadband Radio Service) wireless spectrum in conjunction with a controller that dynamically adjusts antenna direction, orientation and receive/transmit beam for receiving/transmitting the information at an installed fixed wireless apparatus (FWA) at user or subscriber premises. In one variant, the FWA includes controller logic that tracks Radio Frequency (RF) propagation parameters and optimizes antenna azimuth and tilt to maximize the antenna gain towards a serving base station. As such, service calls by operator personnel to optimize antenna performance are not required, thereby reducing network operating expenses. Moreover, increased customer density at a prescribed service level is achieved through more precise coordination and mitigation of interference between nearby FWA devices and their serving base stations.

Abstract: Resource utilization information including one or more of central processor utilization, memory utilization, and device load values are received from each of a plurality of network devices that compose an access network that is communicatively coupled to a core network. The resource utilization information is provided to a machine learning model to receive an output, wherein the machine learning model has been trained with historical resource utilization information associated with network devices that compose an access network, predetermined thresholds, and an impact to the access network of network resources being added to a core network. A recommended increase in network resources of the core network or the access network is sent to a destination based on the output.

Abstract: In a hierarchical communication network having a network controller at a highest network level and network devices at one or more lower network levels, where each network device at a lowest network level supports communications with one or more end nodes, the network controller supports an initial phase of a communication session between first and second end nodes, where communication signals transmitted from the first end node to the second end node traverse the network controller; determines that a subsequent phase of the communication session can be supported by a particular lower-level network device; and configures the lower-level network device to support the subsequent phase, wherein communication signals transmitted from the first end node to the second end node do not traverse the network controller, thereby potentially reducing the processing and/or memory requirements for the WLAN controller, WLAN controller and/or link costs, and/or latency and delay levels.

Abstract: A network environment includes multiple wireless base stations providing wireless access to multiple mobile communication devices. A first wireless base station receives a first signal such as from satellite or other suitable entity. The first signal includes timing information modulated onto a first carrier frequency. The first wireless base station produces a second signal in which the timing information is modulated onto a second carrier frequency. The first wireless base station wirelessly transmits the second signal from the first wireless base station to a second wireless base station in the network environment. The timing information is used by both the first wireless base station and the second wireless base station to synchronization their respective clocks and corresponding wireless communications providing the wireless access to the multiple mobile communication devices.

Abstract: Configuration information that identifies a plurality of components that define a network is received. Based on the configuration information, a plurality of virtual network function (VNF) instances are caused to be generated on a plurality of general-purpose computing devices to implement the network on the plurality of general-purpose computing devices, each VNF instance corresponding to one of the plurality of components. Based on the configuration information, at least some of the VNF instances of the plurality of VNF instances are configured. Testing data and testing criteria are obtained. The testing data is submitted to the network, and network test results based on the testing data and the testing criteria are output.

Abstract: The present invention relates to methods and apparatus for achieving frequency, phase and time of day synchronization in wireless systems. An exemplary method of operating a first wireless base station in a first network in accordance with an embodiment of the present invention comprises the steps of: (i) receiving, at the first wireless base station, a first message; (ii) in response to receiving the first message entering, by the first wireless base station, into a first mode of operation; and (iii) while operating in the first mode of operation, obtaining, by the first wireless base station, synchronization information from a first user equipment device using over the air device to device communications, the synchronization information including time synchronization information.

Abstract: A wireless network environment includes communication management hardware, a wireless base station, a core network, and multiple remote networks. The communication management hardware establishes first wireless connectivity between customer premises equipment and a main wireless base station. The customer premises equipment provides one or more communication devices in a subscriber domain access to a remote network over the first wireless connectivity and through the main wireless base station. A mobile communication device unaffiliated with the subscriber domain may be located inside or outside the subscriber domain. The main wireless base station provides the mobile communication device connectivity to the remote network. In response to receiving notification to operate the customer premises equipment in a supplemental wireless base station mode, the customer premises equipment provides the mobile communication device access to the remote network through the customer premises equipment.

Abstract: Various embodiments comprise systems, methods, architectures, mechanisms and apparatus managing UE handovers between MNO and MVNO networks by using pre-emptive signaling between the two networks so as to coordinate UE session migration between the two networks, such as for UE having dual SIM capability and a software agent functioning as a connection manager is configured to reduce handover delay by maintaining an active profile of active applications, such as via a snapshot module configured to keep track of active packet flows for each application by, illustratively, tracking such application packet flows at the packet level and maintaining a corresponding snapshot of current application packet flows.

Abstract: Various embodiments comprise systems, methods, architectures, mechanisms and apparatus for managing UE migration between a shared spectrum primary and a secondary network by efficiently capturing UE session snapshots so as to prioritize UE migration by active services from the primary to the secondary network in response to loss of spectrum conditions requiring such migration, and to provide a mechanism by which UE are migrated back to the primary network as soon as shared spectrum becomes available.

Abstract: Methods and apparatus related to radio configuration of a wireless device, such as for use in a quasi-licensed wireless system. In one embodiment, a computerized apparatus is provided, which comprises at least one computer program configured to: (i) detect at least one connectable wireless network; (ii) obtain data relating to one or more associated network conditions; and (iii) change radio configuration of the wireless device based on the obtained data e.g., to enable the wireless device to connect to an optimal base station. In one variant, the data relating to the one or more network conditions is obtained via one or more configurable logic blocks (CLBs) of the wireless device. In one implementation, a CLB can be configured to e.g., generate network data traffic to detect the network conditions. Furthermore, the CLBs can be configured to activate or de-activate individual ones of an array of radios with sectorized antenna of the wireless device.

Abstract: A wireless network environment includes communication management hardware such as disposed in customer premises equipment. The communication management hardware detects a request communication from a mobile communication device, the request communication transmitted from the mobile communication device to a wireless base station. In response to detecting the request communication, the customer premises equipment monitors for reply communication from the wireless base station. The communication management hardware detects failure of the wireless base station to respond to the request communication. In response to detecting the failure, the communication management hardware operates in a relay mode to provide the mobile communication device connectivity with the wireless base station.

Abstract: Methods and apparatus for determining losses due to obstructions in a wireless communications system are described. Pairs of measurements points, one of each side of an obstruction are selected, and wireless device reported received signal energy measurements corresponding to the pair of selected locations are used to determine a path loss through the obstruction. In some embodiments, the pair of measurements points are selected based on one or more of: wireless device orientation at the time of measurement, application in use at the time of measurement, time between measurements, or location between measurements. In one example, a first selected location in the pair corresponds to an outdoor location with a unobstructed line of sight view to the base station, while the second selected location corresponds to an indoor location.

Abstract: In one aspect, an exemplary method for sharing traffic data among a plurality of vehicles includes: a first vehicle receiving current traffic data from at least a second vehicle over a first network protocol; the first vehicle transmitting current traffic data from the first vehicle and the current traffic data received from at least the second vehicle to a roadside unit over a second network protocol; the first vehicle receiving processed traffic data from the roadside unit over the second network protocol, the processed traffic data being based on the current traffic data received from the first vehicle and from at least the second vehicle; and the first vehicle transmitting the processed traffic data received from the roadside unit to at least the second vehicle over the first network protocol.

Abstract: Timing synchronization information is communicated to a plurality of indoor communications devices supporting NB-IoT, e.g., indoor CBSDs supporting NB-IoT, from an outdoor communications device, e.g. a cellular base station supporting NB-IoT signaling using guard bands of a communications channel. An indoor device receiving the timing synchronization information from the outdoor device via NB-IoT signaling may, and sometimes does, process and forward synchronization information to other indoor devices, e.g. other CBSDs, which may be out of direct range of the outdoor device. In some embodiments, a plurality of outdoor base stations supporting NB-IoT receive timing reference information for distribution from the same NPT server coupled to a single reference source, e.g. an atomic clock.

Abstract: A communication management resource receives notification of an incoming communication (such as from a calling party) directed to a mobile communication device in a wireless network environment. In response to receiving the notification, the communication management resource predicts a current location of the mobile communication device based on a prior history of tracking the mobile communication device and a time of receiving the call alert. The communication management resource initiates wireless transmission of the call alert in a wireless signal from a first wireless base station at the predicted current location.

Abstract: Apparatus and methods for coordinating operation of two or more wireless networks operating within a common area or venue. In one embodiment, the apparatus and methods provide mechanisms for scheduling access node(s) of one or more of the wireless networks relative to others of the networks so as to minimize interference or contention for common frequency resources (e.g., unlicensed spectrum such as that used by WLAN, NR-U or LTE-U technologies). In one variant, a network coordinator process generates schedule data that is pushed to one or more of the wireless networks that specifies temporal and spatial aspects wherein access nodes of the recipient one or more networks can operate (e.g., transmit) with suitable levels of interference from other wireless network(s) operating within the area or venue. The schedule data is separate from underlying protocol scheduling by the access nodes, thereby preserving all operational aspects of the underlying ireless protocols.

Abstract: A network controller for a mesh network of routers in a communication system. The network controller automatically monitors the mesh network; determines to add one or more new software-based routers to the mesh network; provisions one or more programmable resources to be the one or more new software-based routers in the mesh network; and configures the one or more new software-based router to support one or more new paths through the mesh network. In some implementations, the controller automatically accesses one or more corresponding OEM libraries to retrieve one or more configuration protocols for the one or more programmable resources and uses the one or more retrieved configuration protocols to provision the one or more programmable resources using NFV and SDN technologies and configure the one or more new software-based routers. The controller may also automatically decommission one or more existing software-based routers from the network when appropriate.

Abstract: Devices including a wireless receiver, e.g., indoor CBSDs, in a local network, e.g. a campus network, monitor for wireless signals conveying synchronization information. Different devices in the local area network may detect wireless signals conveying synchronization information from one or more different sources. A device detecting a source of synchronization information generates and sends a timing signal accuracy report to a switch, e.g. an intelligent IDF switch, included in the local network. The switch receives multiple timing signal accuracy reports, selects a “best” sync source and designates the particular device, e.g., particular CBSD, which reported the best sync source, to be the current master timing device for the local network. The switch communicates the address, e.g., IP address, of the selected master to the devices within the local network.