Abstract: To reduce the contribution of data communications for background applications to network congestion, the examples implement techniques in which congestion detection leads a mobile device to impose restriction on data communications by any application running in the background. The mobile device may detect congestion and/or the need to restrict background data communications in response to a message or instruction received from a node of the network; or the mobile device may itself more directly detect congestion from monitoring and analysis of device/network interaction behavior and trends. Upon detecting congestion, the mobile device turns on a background data restriction. For example, with the restriction on, all applications only running in the background without direct user interaction are blocked from sending requests for data communication to/through the network. However, with the restriction active, the mobile device can still provide data communication in response to user interaction with the device.

Abstract: A mobile device pass through for signaling messages procedure allows smart devices to participate in and control multimedia communications by providing the ability to control multimedia communications to the smart device by the mobile device. A mobile device and a smart device establish a channel of communications between the mobile device and a web browser executing on the smart device, e.g. when both are connected to the same Wi-Fi access point. When the web browser accesses a web application that utilizes signaling messages to control multimedia content, the web browser will send signaling message requests to the mobile device. The mobile device, in turn, generates and forwards the signaling message. Media content is delivered directly to the smart device without passing through the mobile device or the established channel of communications.

Abstract: A conversion device may receive a first message in a Telelocator Alphanumeric Protocol (TAP) format. The first message may include information that identifies a user device as an intended recipient of the first message. The first message may not be transmissible over a wireless connection. The conversion device may convert the first message into a second message in a first format capable of being transmitted over the wireless connection. The second message may include information that identifies the user device. The conversion device may provide the second message, using the wireless connection, to a messaging device. The wireless message may cause the messaging device to convert the second message into a third message in a second format that is capable of being delivered to the identified user device. The wireless message may further cause the messaging device to provide the third message to the user device.

Abstract: A device is configured to receive a request for directions from a user device. The device determines a start time, a start location, and a destination location for the directions. The device determines a route from the start location to the destination location and obtains travel condition information corresponding to the route. The travel condition information indicates a traffic condition or a weather condition. The device predicts a future travel condition along the route based on the travel condition information and the start time. The device generates the directions based on the future travel condition and provides the directions to the user device.

Abstract: Exemplary embodiments provide a system and method for uploading large files to a remote server faster. The system and method divide the file into smaller file chunks and utilize parallel thread execution to prepare and upload the file chunks to the remote server. The uploading may further utilize a plurality of HTTP connections. Once all chunks have been uploaded to the remote server, the chunks may be consolidated into the original file by using content tokens and chunk numbers associated with the uploaded chunks.

Abstract: To allow a user to temporarily move access to premium content to another location, e.g. outside the vicinity of the home, while adequately protecting the rights of a broadcast content provider, the various examples implement a transfer of an object for an identified right of content usage between premium content reproduction devices and a mobile device. The mobile device enables such transfer to support viewing of the premium content by a user outside of the user's home.

Abstract: A user device may be configured to generate a multipart message (e.g., a multimedia messaging service (“MMS”) message). A message part of the multipart message may include conversation metadata that includes information regarding a messaging conversation between the user device and at least one other user device. The message part may include a multipart type indicator (e.g., a Multipurpose Internet Mail Extensions (“MIME”) type indicator) that indicates that a type of the at least one part is a type associated with conversation metadata. The user device may output the multipart message to the other user device.

Abstract: A previously obtained location of a fixed wireless device is stored and available for processing of a call or the like from the device when a location determination may be desirable. In some circumstances, the previously obtained location of the fixed wireless device may be retrieved to provide information to a public-safety answering point (PSAP) during handling of an emergency call initiated by the fixed wireless device over a wireless network.

Abstract: Systems and methods for message timestamp re-alignment for message thread consistency across multiple devices are disclosed. In some implementations, an outbound message originating at a mobile phone is received at an integrated messaging server. The outbound message is associated with a messaging protocol. A timestamp representing a send time for the outbound message associated with the messaging protocol at the mobile phone is determined, at the integrated messaging server, by receiving an indication of the send time from the mobile phone. The outbound message and the timestamp are stored at the integrated messaging server. The outbound message and the timestamp representing the send time for the outbound message are provided from the integrated messaging server to a client computing device different from the mobile phone.

Abstract: A method includes receiving, at a network device in a shared network that includes a plurality of PLMNs, a request from an inbound roaming user device to connect to a home network of the inbound roaming user device. The method also includes identifying, by the network device, a PLMN selected by the inbound roaming user device, and accessing a listing of allowed PLMNs and disallowed PLMNs for roaming in the shared network. The method includes determining whether the selected PLMN is an allowed PLMN and blocking the connection to the home network in response to a determination that the selected PLMN is not an allowed PLMN.

Abstract: A method includes attaching to a Packet Data Network (PDN) supporting services over a long term evolution (LTE) network to establish a first network connection. The method includes connecting to a wireless local area network, e.g. a WiFi network, to establish a second network connection. The method further includes launching an application accessing at least one of the supported services and receiving a request from the application to switch between the first and second network connections, according to the supported service, e.g. a policy associated with the service. Switching from the first network connection to the second network connections includes connecting to the PDN via an evolved Packet Data Gateway (ePDG).

Abstract: Systems and methods for managing user interface elements using gestures are disclosed. In some implementations, a block representing a plurality of user interface elements is displayed on a touch screen of a device. A first gesture initiated at a position corresponding to the block representing the plurality of the user interface elements is received via the touch screen. A first path corresponding to the first gesture is stored in a memory. At least a portion of the plurality of user interface elements are displayed on the touch screen in positions along the first path.

Abstract: Service level agreement (SLA) based monitoring and configuration of a path for transmission of data is achieved by identifying an SLA associated with the data and determining transmission requirements associated with the SLA. A status of a network element in the path, such as data occupancy of a data queue included in the network element, may be determined and used to select one of a high bandwidth portion or a low bandwidth portion of the pathway. The occupancy of the queue may be used to estimate a transmission delay, and the estimated transmission delay is used to select between the high bandwidth portion and the low bandwidth portion. The data may be directed to the selected bandwidth portion by changing a quality of service (QoS) value or other attribute associated with the data.

Abstract: Examples are disclosed that facilitate using a mobile device to provision of a connectable device to a user account. The disclosed examples provide for provisioning a connected device by a mobile device that uses a near field communication (NFC) transceiver in the mobile device to obtain information identifying a connectable device. The information identifying the connectable device is obtained from a NFC transponder associated with the connectable device. The mobile device processor accesses user account-related information to retrieve user authenticating information. The user authenticating information and the information identifying the connectable device is transmitted via a wireless communication transceiver to a provisioning server for provisioning the connectable device in a network. A confirmation of the provisioning of the connectable device to the user account associated with the mobile device is presented in a user interface element of the mobile device.

Abstract: Examples perform context categorization by categorizing a transcription of a speech file based on the context of the subject matter of the transcription. A computer processor is configuration to provide a system that generates a normalized transcription of the speech file transcription and compares elements of the normalized transcription to elements of a context categorization model or a corpus of categorized transcriptions to determine whether the normalized transcription contains keywords of transcriptions that have previously been categorized. If the comparison yields a result indicating a specific match with a context category, the normalized transcription is assigned to the matching context category. As the number of successfully categorized transcriptions stored in the corpus increases, the more frequently the system and method examples perform successful comparisons. As a result, the context categorization accuracy increases and the system appears to learn.

Abstract: A first server device may receive a group identifier, a first list including one or more first user device identifiers, and an instruction to archive messages associated with the one or more first user device identifiers; receive a second list including one or more second user device identifiers that are associated with the group identifier; and generate a third list including one or more third user device identifiers that are in the first list and the second list. The first server device may receive a message associated with a user device identifier; determine that the message is to be archived when the user device identifier associated with the message is included in the third list; and provide the message to a second server device based on the determination that the message is to be archived.

Abstract: A system may receive raw information associated with a network and may prepare the raw information to create optimized information. The optimized information may include the raw information that has been sorted. The system may correlate the optimized information to create a set of correlated information. The system may aggregate at least two sets of correlated information to create aggregated information. The system may determine that network analytics are to be performed using the set of correlated information or the aggregated information. The system may determine information associated with performing the network analytics, including the set of correlated information or the aggregated information. The system may perform the network analytics based on the information associated with performing the network analytics. The system may provide a result associated with performing the network analytics. The result may indicate a manner in which to improve a performance of the network.

Abstract: A call is made from a user equipment (UE) device to a first other UE device that is is paired to a short range communications device. The first other UE device monitors the respective connections between short range communications device and the first other UE device and a second other UE device and automatically hands over the telephone call from the first other UE device to the second other UE device when the connection between the short range communications device and the second other UE device is stronger than the connection between the short-range communications device and the other first UE device. The cordless headset 172 is concurrently handed off from the first other UE device to the second other UE device.

Abstract: A server device may broadcast programming content; identify a received indication that a particular user device has received the programming content; determine device analytics information regarding the particular user device; identify, based on the device analytics information, targeted advertising for the particular user device; and output, to the particular user device, the identified targeted advertising. A user device may receive broadcasted programming content; present the broadcasted programming content; output an indication that the broadcasted programming content is being presented; receive targeted advertising that was generated based on the outputted indication; and present the targeted advertising in conjunction with the broadcasted programming content.

Abstract: A primary application and a secondary application installed on a mobile communication device are both configured to obtain input from a user of the device through an application session of the primary application. The primary application transmits a notification to cause the secondary application to begin execution in the background. The primary application further transmits a request for user interface (UI) information to the secondary application. Based on UI information received from the secondary application, the primary application generates a graphical user interface (GUI) including an interface for receiving user input relating to the secondary application. The generated GUI is displayed on the device in the application session of the primary application, and user input relating to the secondary application is received in the application session of the primary application. The primary application then transmits to the secondary application user input identified as relating to the secondary application.