Abstract: A configuration to enable a UE to obtain access to an unlicensed frequency channel of the unlicensed frequency spectrum in the event of channel access failures. The apparatus performs a radio link monitoring (RLM) for a first unlicensed frequency channel of an unlicensed frequency spectrum for a transmission from a first base station. The apparatus determines that the first unlicensed frequency channel is unavailable for the transmission based on a comparison of one or more of a reference signal received power (RSRP), a reference signal received quality (RSRQ), a received signal strength indicator (RSSI), a signal to interference plus noise ratio (SINR), a signal to noise ratio (SNR), or a channel occupancy or interference metric to a corresponding threshold. The apparatus sends a report to the first base station indicating a failure of the transmission upon determining that the first unlicensed frequency channel is unavailable for the transmission.

Abstract: A configuration to enable a UE to obtain access to an unlicensed frequency channel of the unlicensed frequency spectrum in the event of channel access failures. The apparatus receives a configuration from a first base station to perform a conditional handover. The apparatus determines a first unlicensed frequency channel is unavailable for a transmission to the first base station or from the first base station. The apparatus switches from the first unlicensed frequency channel to a second cell for communication through the second cell in the conditional handover upon receiving the configuration and upon determining that the first unlicensed frequency channel is unavailable for the transmission.

Abstract: The described technology is generally directed towards user equipment (UE) geolocation. A machine learning model can be trained to estimate UE locations based on historical network communication data associated with the UEs. In order to train the machine learning model, known previous UE locations and corresponding historical network communication data can be provided to the machine learning model. A variety of other information, such as topographical information, can also be provided to the machine learning model. The machine learning model can be trained to predict the known previous UE locations based on the corresponding historical network communication data and any other provided information. Once it is trained, the machine learning model can be deployed to estimate real-time UE locations based on historical network communication data associated with the UEs.

Abstract: A miniaturized multiprotocol audio/voice internet-of-things device (MAVID) initiates a wireless call in response to a command received from a first user. The MAVID carries out the wireless call between the first user and a second user. The wireless call utilizes wireless protocols such as WiFi, Bluetooth, third generation mobile technology (3G), fourth generation mobile technology (4G), and Digital Enhanced Cordless Telecommunications (DECT). The MAVID performs an in-call interaction, such as connecting to and utilizing an internet-based application or controlling a consumer electronic device, in response to a voice command from either the first user or the second user, while carrying out the wireless call.

Abstract: A method and system is provided for enabling spectrum sensing capability in a network having at least one primary user and a plurality of secondary users configured to communicate using a shared spectrum. The methods and systems include receiving values from sensors corresponding to received signal strength from a primary user in one or more frequencies of the shared spectrum. The values are used to interpolate at least one additional value between the sensors. A detection threshold is determined for sensing a signal transmitted from the primary user based on an acceptable amount of interference. The primary user is then determined to be transmitting in the one or more frequencies of the shared spectrum if any of the values received from the plurality of sensors or the at least one additional value interpolated along the path exceeds the detection threshold.

Abstract: Methods and systems are provided for dynamically assigning a wireless communication protocol to one or more antenna elements of an antenna array. The methods can include receiving information associated with one or more user devices and, based on the received information, identifying one or more antenna elements of the antenna array, for switching between first and second wireless communication protocols. The methods can also include switching the one or more antenna elements between the first and second wireless communication protocols.

Abstract: Embodiments described herein are directed to a tracking objects using a cognitive heterogeneous ad hoc mesh network. Participant objects transmit notification signals to inform other participant objects in line-of-sight of their position and movement. The participants also utilize echoes of the notification signals to detect and estimate the position and movement of non-participant objects. Participant objects can then share this positional information with one another to refine the estimated position and movement of non-participant objects. The position of each other participant and non-participant object is updated based on an individualized update rate that dynamically changes based on the distance and velocity of closure between the participant and the other participant or non-participant object.

Abstract: A system described herein may provide for the selection of a cell of a wireless telecommunications network to which a User Equipment (“UE”) should connect. The UE may receive radio frequency (“RF”) signals from a group of cells (e.g., implemented by Radio Units (“RUs”)) of a radio access network (“RAN”), and may determine signal strengths or measures of channel quality associated with the RF signals. For example, the UE may determine a rate of change of signal strengths over time associated with each cell, a differential rate of change, or some other value, and may select the cell based on the respective rates of change. For example, the UE may select a particular cell which exhibits the lowest differential rate of change of signal strengths over time. A particular cell may be implemented, for example, by a mobile RU mounted on a vehicle that maintains relatively close proximity to UE.

Abstract: Systems, methods, apparatuses, and computer program products for supporting wireless emergency alert messages sent to mobile devices through radio access networks are provided. One method may include utilizing a binary value of 0000 as an update number in wireless emergency alert messages that have short text, utilizing a binary value of 0001 as the update number in wireless emergency alert messages that have long text, broadcasting the short text wireless emergency alert message to mobile devices on a second generation or third generation (2G/3G) network, and broadcasting the long text wireless emergency alert message to mobile devices on a long term evolution (LTE) network.

Abstract: An MR code is generated within a browser on a client device and is read by a mobile application on a mobile device. A communication channel is then established through a web-based service, between the browser and the mobile application on the mobile device. The mobile application generates a user interface display on the mobile device that allows user selection of content. The mobile application sends a link to that content to the browser, which accesses and renders the content on the client device. User input commands to control the rendered content are also received at the mobile device and sent to the browser through the communication channel.

Abstract: Aspects of the subject disclosure include, for example, identifying a primary serving cell and a secondary serving cell, wherein the primary serving cell facilitates one of attachment, re-attachment or mobility, or any combination thereof, of a mobile device in association with coordination of a wireless service between the primary serving cell, the secondary serving cell and the mobile device. A latency value associated with a message exchange is determined between the primary and secondary serving cells via a messaging interface, and compared to latency requirements, which correspond to a group of mobile service features. A mobile service feature of the group is associated with the wireless service based on the comparison. The wireless service includes a coordinated exchange of wireless signals between the primary serving cell and the mobile device and between the secondary serving cell and the mobile device based on the mobile service feature. Other embodiments are disclosed.

Abstract: Embodiments described herein are directed to a tracking objects using a cognitive heterogeneous ad hoc mesh network. Participant objects transmit notification signals to inform other participant objects in line-of-sight of their position and movement. The participants also utilize echoes of the notification signals to detect and estimate the position and movement of non-participant objects. Participant objects can then share this positional information with one another to refine the estimated position and movement of non-participant objects. The position of each other participant and non-participant object is updated based on an individualized update rate that dynamically changes based on the distance and velocity of closure between the participant and the other participant or non-participant object.

Abstract: This disclosure describes systems, methods, and computer program products for identifying a presence of a plurality of mobile devices at a geographic location; determining an entertainment option to be played at the geographic location based on the identified plurality of mobile devices; and based on the determination, selecting an entertainment option to be played at the geographic location.

Abstract: Embodiments described herein are directed to a tracking objects using a cognitive heterogeneous ad hoc mesh network. Participant objects transmit notification signals to inform other participant objects in line-of-sight of their position and movement. The participants also utilize echoes of the notification signals to detect and estimate the position and movement of non-participant objects. Participant objects can then share this positional information with one another to refine the estimated position and movement of non-participant objects. The position of each other participant and non-participant object is updated based on an individualized update rate that dynamically changes based on the distance and velocity of closure between the participant and the other participant or non-participant object.

Abstract: An access point (AP) in a wireless communication system supporting a vehicle to infrastructure (V2I) scheme is provided. The AP includes a controller configured to generate a neighbor AP information message including location information of each of neighbor APs and a transmitter configured to transmit the neighbor AP information message. The neighbor AP information message includes a field indicating that a type of a currently transmitted message includes location information, a length field indicating a length of fields located after the length field in the currently transmitted message, and a location information field indicating location information of each of the neighbor Aps.

Abstract: Embodiments described herein are directed to a tracking objects using a cognitive heterogeneous ad hoc mesh network. Participant objects transmit notification signals to inform other participant objects in line-of-sight of their position and movement. The participants also utilize echoes of the notification signals to detect and estimate the position and movement of non-participant objects. Participant objects can then share this positional information with one another to refine the estimated position and movement of non-participant objects. The position of each other participant and non-participant object is updated based on an individualized update rate that dynamically changes based on the distance and velocity of closure between the participant and the other participant or non-participant object.

Abstract: Disclosed is a method of facilitating communication based on user interest. The method includes receiving, using a communication device, multiple locations corresponding to multiple user devices and generating, using a processing device, multiple anonymized locations corresponding to the multiple locations. Further, the method includes storing, using a storage device, the multiple anonymized locations in association with the multiple user accounts and receiving, using the communication device, a request from a user device associated with a user account, wherein the user account is associated with a user interest. Yet further, the method includes identifying, using the processing device, one or more anonymized locations associated with one or more user accounts from the multiple user accounts based on the user interest. Moreover, the method includes transmitting, using the communication device, the one or more anonymized locations associated with the one or more user accounts to the user device.

Abstract: A network comprising a first BS and a second BS for handling a RAT tight interworking comprises the first BS connecting to a communication device via a first RAT and transmitting a message; the first BS receiving, upon the message configures the RAT tight interworking, a first response message via the first RAT; the first BS disconnecting, upon the message configures an inter-RAT handover, from the communication device and not receiving the first response message; the second BS connecting to the communication device via a second RAT; the second BS receiving a second response message and communicating second data via the second RAT while the first BS communicates first data via the first RAT, after the first BS receives the first response message; and the second BS receiving a third response message and communicating third data via the second RAT, after the first BS disconnects via the first RAT.

Abstract: A connection manager manages connections for associated user devices by determining whether an incoming connection has been answered at a user device, and if so then generating and transmitting silencing commands to associated user devices using first and second wireless communication modes, with one mode being faster. Connections can comprise phone calls, and modes can comprise push and Bluetooth® messaging. The connection manager can instruct device outputs to provide connection alerts, limited to visual alerts when an associated user device is active, listen for associated user device communications, and instruct device outputs to stop providing alerts when a silencing command is received. Further, a connection manager can receive a signal regarding a headset status, route an outside connection from a phone to the headset when the headset is active or to another device when the headset is not active, detect a change in headset status, and reroute the connection accordingly.

Abstract: A mobile terminal assists in the updating of a neighbor cell list associated with a first cell of a wireless telecommunications network. The list comprises elements that identify other cells that have a neighbor cell relationship with the first cell. The mobile terminal comprises a radio transceiver; and a controller coupled to the radio transceiver.