Abstract: Aspects of the subject disclosure may include, for example, a method in which a processing system obtains geolocation information for an unmanned aerial vehicle (UAV) and for a cell of a terrestrial communication network. The system estimates a distance between the UAV and the cell, calculates an expected receive (RX) power for a signal transmitted from the UAV to the cell, and compares the expected RX power with a threshold power to determine whether the cell is a suitable target cell for a communications handover procedure for the UAV. Other embodiments are disclosed.

Abstract: A method for decoding PLMN information comprises receiving a message comprising PLMN information for a plurality of cells and determining PLMN information from the message for a first group of cells that comprises at least one cell, each cell of the first group of cells associated with a first core network type. The method further comprises determining PLMN information from the message for a second group of cells that comprises at least one cell, each cell of the second group of cells associated with a second core network type. At least one cell is a part of the first group of cells and the second group of cells. The PLMN information for the at least one cell in the first group of cells and the second group of cells is provided only once.

Abstract: An electronic device (14) detects when a downlink reference signal has not been received from a base station (12), and initiates transmission of an uplink reference signal (64) in response to determining that certain trigger criteria have been satisfied. Upon receiving the uplink reference signal (64) or a notification signal (60) from the electronic device (14), the base station (12) can perform various actions to maintain network mobility and handover performance. In this manner, the disclosed approach allows a network to maintain mobility and handover performance even when a base station (12) is unable to transmit downlink reference signals due to an occupied communication channel.

Abstract: This disclosure provides a method unmanned aerial vehicle handover, a base station, and a non-transitory computer readable storage medium. The method for unmanned aerial vehicle handover includes: when base stations meeting handover conditions are determined based on a measurement report sent by an unmanned aerial vehicle, determining whether there is a candidate base station that has completed a handover preparation existed among the base stations meeting the handover conditions; and when there is a candidate base station that has completed the handover preparation existed among the base stations meeting the handover conditions, handing over the unmanned aerial vehicle to the candidate base station meeting the handover conditions.

Abstract: An information handling system may include a processor; a memory device; a wireless network interface device to communicatively couple the information handling system to a communication network; a wireless network connection module to determine whether the information handling system is communicatively coupled to one of a Wi-Fi communication network, a public long-term evolution (LTE) communication network, and a private LTE communication network; a velocity determination module to determine a velocity of the information handling system; and a network prioritization module to communicatively couple and consign the information handling system to a second communication network for data communication prioritization for efficient a hand-off process operation corresponding to, at least, the velocity of the information handling system.

Abstract: The present disclosure provides a user equipment for a mobile telecommunications system, which includes circuitry configured to communicate with a new radio base station. The circuitry is further configured to transmit an on-demand system information request to the new radio base station, wherein the on-demand system information request is transmitted based on a backup resource.

Abstract: It is inter-alia disclosed a method performed by a mobile device, the method including: receiving at least one radio signal when scanning for observable radio signals at an observation position of the mobile device; determining or causing determining a venue associated with an identifier contained in or represented by the at least one radio signal at least partially based on a plurality of venue information items; determining or causing determining a position estimate of the observation position at least partially based on layout information representing a layout of the venue associated with the identifier.

Abstract: A method for base station handover includes: receiving a Handover Request message sent by a mobility management entity (MME)), to which a destination base station is connected, via an S1 interface, wherein the Handover Request message carries UE excessively high-temperature indication information; sending a Handover Request Acknowledge message to the MME via the S1 interface, so that the MME sends a Handover Command message to a source base station of the UE; and setting transmission configuration information for the UE based on the UE excessively high-temperature indication information, wherein a data transmission rate corresponding to the set transmission configuration information is lower than a maximum data transmission rate that the destination base station can provide for the UE.

Abstract: A process receives performance parameter measurements associated with multiple cell sectors of a group of multiple Remote Radio Units (RRUs) and determines a first set of cell sectors of the multiple cell sectors to include in a first cell sector cluster based on the measured performance parameters. The process configures connections, between the first set of cell sectors included in the first cell sector cluster and a first Baseband Unit (BBU) of multiple BBUs of a Centralized Radio Access Network (CRAN) hub, such that the first BBU processes traffic to and from the first set of cell sectors included in the first cell sector cluster.

Abstract: A system described herein may provide a technique for maintaining and transferring context information for a Dual Connectivity (“DC”)-capable User Equipment (“UE”) and a secondary Next Generation Node B (“gNB”) in situations where the UE is connected to a primary gNB and the secondary gNB and is handed over to an evolved Node B (“eNB”). The context information may be provided to the eNB without releasing resources or tearing down bearers at the secondary gNB, such that the UE may seamlessly continue communicating with the secondary gNB while a primary connection associated with the UE is handed over from the primary gNB to the eNB.

Abstract: Measurement procedures are provided for a communication device. For instance, a system that comprises determining a probability value, wherein the probability value indicates a likelihood of a communication device, connected to a first network node device, connecting to a second network node device with attempts below a first threshold. The system can also comprise determining a scanning period interval value based on the probability value, used by the communication device, to adjust a scanning procedure usable for establishment of a connection with the second network node device, and requesting the communication device to utilize the scanning period interval value during the establishment of the connection with the second network node device.

Abstract: A wireless device may receive at least one radio resource control (RRC) message comprising a field indicating a starting symbol for an enhanced physical downlink control channel (ePDCCH). The wireless device may receive an ePDCCH signal. The ePDCCH may start from the starting symbol plus an offset value.

Abstract: An example method includes requesting a first spectrum channel authorization to utilize a first spectrum channel from a spectrum access system. The method further includes accepting a first spectrum channel authorization response to utilize the first spectrum channel from the spectrum access system. The method additionally includes receiving a first service request from a first computing device over the first spectrum channel. The method still further includes sending a first heartbeat message to the spectrum access system. The method furthermore includes receiving a first heartbeat response message from the spectrum access system. The method yet further includes sending a first service flow request from the broadband access network to accommodate the first service request.

Abstract: The disclosed technology proposes a new methodology to include the effect of speed and direction of a UE into the threshold used for determining when to switch between a 4G UL connection and a 5G UL connection. The system can use a lookup table with various speeds mapping to varying thresholds. The system can use an accelerometer sensor or digital compass to determine the direction of the vehicle, such as heading away from or toward the 5G site, so the vehicle can switch sooner from 5G-NR to LTE and from LTE to NR, respectively. For C-V2X applications, latency is an important factor because 5G technology provides shorter latency than 4G; thus keeping the link on 5G is preferred when under good coverage. Further, the idea is not limited to UL, 5G and/or vehicle technologies, but can also be applied to DL direction, Wi-Fi and/or drone technologies as well.

Abstract: A gateway device for providing a dynamic network activation and/or handover is disclosed herein. The gateway device may determine a first location of the gateway device and identify a first geographical area from a network provider map. The gateway device may identify network desirability information associated with the first geographical area and identify, based at least in part on the network desirability information, a first network provider. The gateway device may determine a second location and a second geographical area from the network provider map. Based at least in part on network desirability information associated with the second geographical area, the gateway device may perform or not perform a network activation and/or handover.

Abstract: Various implementations described herein are directed to technologies for providing steering for devices of a Wi-Fi network. A steering operation to hand off a client from a first device of the Wi-Fi network to a qualified second device of the Wi-Fi network is initiated based on a performance factor. The steering operation from the first device to the second device is performed in a manner that avoids packet loss.

Abstract: As described herein, one of a third generation (3G) radio access network (RAN) or a fifth generation (5G) RAN may be selected to receive a handover of a communication session from a fourth generation (4G) RAN. The 3G RAN or 5G RAN may be selected based on at least one of performance measurements for the 3G RAN and the 5G RAN, a preference for the 3G RAN or the 5G RAN, or a performance threshold for the 3G RAN or for the 5G RAN. The handover to the selected one of the 3G RAN or 5G RAN may then be initiated.

Abstract: The disclosed technology includes systems and methods for controlling enrollment and secure persistent SMS texting account servicing communications. A method is provided that includes receiving, at an enrollment web portal, enrollment data including: enrollment credentials identifying a user for authentication, a phone number of a mobile device associated with the user, and consent by the user to persistently interact with an account servicing system via SMS texting. The method includes: processing the received enrollment data, authenticating the user responsive to processing the received enrollment data, storing the phone number of the mobile device associated with the user in a phone number data storage, and generating, responsive to the authenticating, a revocable token for persistent access to a natural dialogue module via a SMS texting gateway for the mobile device identified by the phone number.

Abstract: A method for communicating in a wireless environment is provided that includes obtaining, with an access point of a first network in the wireless environment, responsiveness data from at least one electronic device. The method also includes communicating with the at least one electronic device to determine availability of a second network in the wireless environment to the electronic device, and determining communication responsiveness through the first network based on the responsiveness data. The method also includes obtaining use data from the at least one electronic device related to the second network, determining communication responsiveness through the second network based on the use data, and disconnecting, with the access point, the at least one electronic device based on the communication responsiveness through the second network.

Abstract: Aspects described herein relate to a base station for providing air-to-ground wireless communication over various altitudes. The base station includes a first antenna array comprising one or more antennas configured to form a first cell coverage area extending substantially from a horizon up to a first elevation angle away from the first antenna array to a predetermined distance from the first antenna array. The base station further includes a second antenna array configured at an uptilt elevation angle to form a second cell coverage area extending at least from the first elevation angle to a second elevation away from the second antenna array, wherein the first cell coverage area and the second cell coverage area are concentric to define the ATG cell at least to the predetermined distance and up to a predetermined elevation.