Abstract:
Flight path determination for unmanned aerial vehicles (UAVs) in which three-dimensional coverage information, corresponding to a wireless network, is used to optimize the flight path to ensure that the UAVs maintain network coverage throughout the flight. The flight path information may be provided as a service to UAV operators. In one implementation, network coverage for a cellular network may be mapped in a three-dimensional manner. That is, the radio signal strength of the network may be mapped at various heights that correspond to heights at which UAVs are likely to fly.
Abstract:
A device is configured to obtain base station information for base stations indicating whether data communicated via a respective base station should receive optimization processing. The device may obtain a base station identifier from a base station. The device may determine whether the data communicated via the base station should receive the optimization processing based on the base station information and the base station identifier. The device may receive non-optimized data to be sent to a client device via the base station. The device may selectively cause the optimization processing to be performed on the non-optimized data based on whether the data communicated via the base station should receive the optimization processing. The device may provide optimized data generated by the optimization processing or the non-optimized data to the client device via the base station based on selectively causing the optimization processing to be performed.
Abstract:
A base station may establish a radio resource control (RRC) connection with a first user device. The base station may determine a bearer attribute of a bearer associated with the RRC connection and the first user device. The base station may determine that the bearer attribute satisfies a set of conditions, and may analyze multiple bearer attributes associated with multiple established RRC connections. The base station may select a terminable RRC connection, of the multiple established RRC connections, based on analyzing the multiple bearer attributes. The terminable RRC connection may be associated with a second user device that is different from the first user device, and the terminable RRC connection may be different from the RRC connection. The device may terminate the terminable RRC connection based on selecting the terminable RRC connection.
Abstract:
An exemplary method includes detecting, by a user feedback system, ring-back content provided to a first computing device during a connection period prior to beginning a communication session between the first computing device and a second computing device, and providing, by the user feedback system in conjunction with the detecting of the ring-back content provided to the first computing device, a feedback mechanism that facilitates a user of the first computing device providing feedback regarding the ring-back content. Corresponding systems and methods are also described.
Abstract:
A system may be configured to receive information regarding a geographical location of a user device; and compare the geographical location of the user device to geographical locations of a set of gateway devices. The gateway devices may be associated with a cellular network, and the gateway devices may communicatively couple one or more network devices associated with the cellular network to an access point that is not associated with the cellular network. The system may further select a particular gateway device based on the geographical location of the user device and the geographical locations of the particular gateway device; and store or output information regarding the selected particular gateway device.
Abstract:
A mobile device includes a transceiver for performing wireless communication, a microprocessor for operating said mobile device, a near field communications (NFC) system for performing wireless communication independent of the transceiver and at a lower amount of power than said transceiver, a contactless front end included in the NFC system for receiving or transmitting signals with an NFC capable device, and a pairing system implemented in the microprocessor for pairing one NFC capable device with another NFC capable device. The pairing system configures the mobile device to receive a tag or a device driver from one of the NFC capable devices that are to be paired with each other; and transfers the tag or a device driver obtained from the tag to the other of the NFC capable devices in order to enable interoperation between the two NFC capable devices.
Abstract:
A device receives, from a content provider, traffic parameters associated with a video content request received from a fixed user device connected to a wireless access network, and determines, based on the traffic parameters, a trigger for creating a dedicated bearer for the fixed user device in the wireless access network. The device also provides the trigger to the wireless access network, where the wireless access network creates the dedicated bearer for the fixed user device based on the trigger, and the wireless access network assigns quality of service (QoS) parameters, based on the traffic parameters, to video content delivered to the fixed user device.
Abstract:
Content originated by a mobile device may be transmitted, via multicast, to one or more other mobile devices. In one implementation, a method may include receiving, from a mobile device attached to a wireless network, a request to initiate a multicast transmission of content generated by the mobile device. The method may further include determining one or more wireless coverage areas to which the multicast transmission of the content is to be provided; receiving, from the mobile device, a unicast transmission of the content; and distributing the received content, via one or more multicast data channels that are broadcast in the one or more wireless coverage areas.
Abstract:
A device may be configured to determine a type of traffic, received by the device from a user device; identify a radio resource control (“RRC”) timeout value associated with the type; start an RRC dormancy timer based on the RRC timeout value; and modify, based on expiration of the RRC dormancy timer, an RRC channel between the device and the user device.
Abstract:
A device may proactively mitigate network congestion and reduce network load on a network device. In some implementations, the device may monitor load information associated with a base station in communication with a user device via a wireless cellular network; determine, based on the load information, that load on the base station should be reduced; determine, in response to the determination that the load on the base station should be reduced, and based on a type of traffic being transmitted to the user device via the base station, whether traffic for the user device can be offloaded to an access point within communications range of the user device; and cause, based on determining that the traffic for the user device can be offloaded to the access point, the user device to communicate via the access point and discontinue transmitting the traffic via the base station.