Abstract: A location-aware task automation service is configured to dynamically monitor locations and context associated with a group of users of mobile devices to identify a commonly shared goal of the group and perform automated actions to assist the group in achieving the goal. For example, the common group goal could include being at the same location at the same time to attend an event such as a show or party. By tracking the location of each member of the group, and monitoring applicable context such as traffic conditions, the service can predict when one or more of the group members is likely to be late to the event, and then perform automated tasks to assist the members in dealing with the delay such as identifying a faster route to the location. The service can also let other group members know of the delay by sending out notifications to their devices.

Abstract: Mobile communications devices are provisioned using unique device information. A request may be received by a device from an application executing on the device. The request may be for unique identification data for an embedded Universal Integrated Circuit Card (eUICC) installed on the device. In response to the request, the device may access the unique identification data from a persistent storage of the computing device. The unique identification data may be provided to the requesting application via an interface.

Abstract: Embodiments manage use of different network connections for data transfer in view of priority information and a data usage plan identifying threshold limits associated with the different network connections. A computing device receives data transfer requests from applications executing on the computing device. The data transfer requests have priority information associated therewith. The computing device compares the priority information with available network connections. One or more of the data transfer requests are selected for initiation based on the comparison and on the threshold limits.

Abstract: Identities of mobile communications devices and subscription credentials are maintained by an enterprise server. The subscription credentials are operative to enable access to subscription services of a mobile network operator. Control of the subscription credentials is delegated from the mobile network operator to the enterprise server. The enterprise server determines which of the mobile communications devices are to be provisioned by the subscription credentials. Policies for use of the subscription credentials by the determined mobile communications devices are identified. The subscription credentials and policies are applied to the mobile communications devices.

Abstract: Mobile communications devices are provisioned using unique device information. A request may be received by a device from an application executing on the device. The request may be for unique identification data for an embedded Universal Integrated Circuit Card (eUICC) installed on the device. In response to the request, the device may access the unique identification data from a persistent storage of the computing device. The unique identification data may be provided to the requesting application via an interface.

Abstract: Embodiments relate to virtual call routing to enable a user (caller) to communicate with another person (callee) without specifying details of calling. A variety of independent communication channels are selected from and prioritized for calling the callee. The channels may be independent in that they might not communicate with each other, share a common backend support service, operate through a same common local application or local background communication service, use a same communication network, etc. Any real-time person-to-person communication channel (application) on a calling device can potentially be used to attempt to reach the callee. Even if the callee has multiple unrelated identities on multiple different channels, the caller can focus on specifying the person to be called and perhaps conditions for the call without regard for which channels are available, which channels and/or identities are likely to succeed, or which channels are suitable to the conditions.

Abstract: Embodiments relate to making IP-based (Internet Protocol based) emergency calls. A device is capable of making calls over the Internet to an IP Multimedia Subsystem (IMS) core to a Public-Safety Answering Point (PSAP). The device computes location information based on its actual or estimated physical location. The location information may be computed prior to making an emergency call, for instance by a location platform or service running on the computing device. When the device makes an emergency call, the device uses its location information to inform the emergency call. Specifically, a SIP message is formatted with the location information. The SIP message might be a SIP invitation formatted with a header indicating that an emergency call is being requested. The device might be capable of making only IP-based calls.

Abstract: Embodiments manage use of different network connections for data transfer in view of priority information and a data usage plan identifying threshold limits associated with the different network connections. A computing device receives data transfer requests from applications executing on the computing device. The data transfer requests have priority information associated therewith. The computing device compares the priority information with available network connections. One or more of the data transfer requests are selected for initiation based on the comparison and on the threshold limits.

Abstract: Embodiments enable data usage plans and data usage statistics to be shared among user computing devices. In some embodiments, a web service receives a schema populated with data describing the data usage plan from a mobile operator. The web service distributes the populated schema to the user computing devices, and subsequently distributes updated portions of the schema as the data usage plan is updated by the mobile operator. The web service may also collect the data usage statistics from the user computing devices and the mobile operator, reconcile any differences, and send synchronization notifications to the user computing devices based on the reconciliation. In some embodiments, users are able to view bandwidth consumption by a plurality of user computing devices sharing the same data usage plan.

Abstract: Embodiments profile users based on data usage of installed applications and provide recommendations for reducing data usage. A computing device or cloud service determines a plurality of applications installed on the computing device. Data usage patterns associated with each of the determined plurality of applications are identified. The data usage patterns describe data usage over a network for at least one of the determined plurality of applications. One or more recommendations for reducing data usage are defined based on the identified data usage patterns. Some embodiments recommend switching applications, uninstalling applications, or disabling particular network connections.

Abstract: Embodiments provide a schema for representing data usage plans and data usage statistics. The data usage plan describes threshold values associated with network connections of computing devices of the user. A web service dynamically generates data usage statistics for the computing devices to represent data consumed by the computing devices under the data usage plan. The schema is updated with the data usage statistics and distributed to the computing devices for presentation to the user.

Abstract: Embodiments provide interactive prediction of network data consumption. Current data usage statistics are compared with a data usage plan. The current data usage statistics represent network data consumed by at least one computing device of the user. The network data is consumed during at least a portion of a pre-defined time interval of a data usage plan. For the given time interval, one of a plurality of pre-defined data usage states is assigned to the user, such as On Track, Off Track, Over Limit, and Under Track. In some embodiments, the user interacts with the data usage pattern to dynamically adjust for expected future use, which may change the currently assigned data usage state.

Abstract: Embodiments attribute network data transfers to applications executing on a computing device. A data transfer service executes on the computing device to receive and process data transfer requests. The data transfer requests, populated by the applications, have identifiers attributed thereto to enable monitoring of the network data transfers per identifier. For example, network data transfers associated with different mail accounts of a mail program or different web sites of browser are attributed separately. Data usage statistics relating to the network data transfers for each identifier may be generated and presented to the user for review.

Abstract: Embodiments attribute network data transfers to applications executing on a computing device. A data transfer service executes on the computing device to receive and process data transfer requests. The data transfer requests, populated by the applications, have identifiers attributed thereto to enable monitoring of the network data transfers per identifier. For example, network data transfers associated with different mail accounts of a mail program or different web sites of browser are attributed separately. Data usage statistics relating to the network data transfers for each identifier may be generated and presented to the user for review.

Abstract: An extensible framework for offloading data traffic sent to a mobile computing device over a cellular network to a wireless network comprises software plugins, a plugin host that is typically part of the mobile device operating system, and plugin interfaces through which the plugin host communicates with the plugins. A plugin is associated with one or more mobile operators. The framework can comprise one or more plugins, but typically, only one plugin is active at a time. The framework can automatically detect and connect to wireless networks associated with a mobile operator associated with an active plugin. The plugin can automatically authenticate the mobile device or a mobile device user with the mobile operator over the connected wireless network. The plugins are not allowed access to operating system functions responsible for detecting and connecting and disconnecting to a wireless network, which can improve mobile operating system stability and battery life.

Abstract: Various technologies described herein pertain to transferring geospatial tiles for Wi-Fi networks. A geospatial tile specifies a geographic region and includes data pertaining to a plurality of Wi-Fi networks having respective geographic coverage areas within the geographic region. A mobile device can receive an indicator that corresponds to a geospatial tile for retrieval by the mobile device. Further, the mobile device can request the geospatial tile from a tile management system based upon the indicator. Upon receiving the geospatial tile from the tile management system, the mobile device stores the geospatial tile in a tile cache. Further, the mobile device can automatically connect to a particular Wi-Fi network from the plurality of Wi-Fi networks utilizing data for the particular Wi-Fi network included in the geospatial tile when the mobile device is positioned within a geographic coverage area of the particular Wi-Fi network.

Abstract: In embodiments of mobile device safe driving, a mobile device can display a device lock screen on an integrated display device, and transition from the device lock screen to display a driving mode lock screen. The transition to display the driving mode lock screen occurs without receiving a PIN code entered on the device lock screen. The mobile device implements a safe driving service that is implemented to activate a safe driving mode of the mobile device, and disable features of the mobile device while the safe driving mode is activated.

Abstract: Described is a technology by which a target device automatically starts tethering on a source device. A target device sends a request to start tethering to the source device, which responds by starting tethering, independent of needing any user interaction on the source device. While tethering is operational, status messages may be exchanged between the source device and the target device.

Abstract: Viral application distribution facilitates distribution of an application among users and increases likelihood of downloading the application by the users. A first device may receive information of an application from a second device through a short-range communication channel. The information may comprise identification information of the application without any personally identifiable information of the second device to protect privacy of a user of the second device. A version of the application that is compatible with the first device is determined by searching a catalog using the identification information of the application. The compatible version of the application may then be downloaded or obtained by the first device. Location-based viral distribution may also be performed between devices that visit a location, even at different times.

Abstract: Embodiments provide a schema for representing data usage plans and data usage statistics. The data usage plan describes threshold values associated with network connections of computing devices of the user. A web service dynamically generates data usage statistics for the computing devices to represent data consumed by the computing devices under the data usage plan. The schema is updated with the data usage statistics and distributed to the computing devices for presentation to the user.