Abstract:
An apparatus may include a user interface and a profile management module. The user interface receives a user-selected operational mode. This operational mode may be selected from a personal mode and a work mode. The profile management module causes information to be presented to the user through the user interface in accordance with the user-selected operational mode.
Abstract:
An electronic device includes a processor configured to run a plurality of applications, a power supply coupled to the processor, and a database coupled to the processor. The database is configured to store information identifying each of the plurality of applications as being in either a first set of applications or a second set of applications. The processor monitors the power level of the power supply and is configured to disable the first set of applications when the power level reaches a predetermined power level.
Abstract:
A client-side device is capable of wirelessly receiving user data for the device. The device is capable of removing duplicative user data items among data wirelessly received and data already existing on the device. The duplicative data may be “de-duped” even though duplicative data items may arise as a result of synchronization operations using different synchronization engines used to synchronize different sets of data types.
Abstract:
A mobile computing device configured to communicate with an audio device comprises an interface circuit, a memory configured to store a plurality of sets of audio parameters for a device type, and a processing circuit. The processing circuit is configured to receive a device identifier, select one of the plurality of audio parameter sets based on the device identifier, generate an audio signal using the selected audio parameters, and transmit the audio signal to the audio device using the interface circuit.
Abstract:
A shared antenna architecture for multiple co-located radio modules is disclosed. For example, an apparatus may include an antenna, a first transceiver to communicate wirelessly across a first link, a second transceiver to communicate wirelessly across a second link, and a shared antenna structure communicatively coupled to the first transceiver, the second transceiver and the antenna. The shared antenna structure may comprise a combiner and at least one switch arranged to allow the first transceiver and the second transceiver to share the antenna for simultaneous operations or mutually-exclusive operations. Other embodiments are disclosed and claimed.
Abstract:
Techniques to manage power based on motion detection are described. For example, a mobile computing device may include a radio module having a communications failure event detector operative to detect a communications failure event, a motion detector operative to detect motion, and a processor coupled to the radio module and the motion detector. The processor operative to execute a scan control module to determine the mobile computing device is moving or stationary, and control scanning operations by the radio module in accordance with the determination. Other embodiments are described and claimed.
Abstract:
A method and apparatus that allows for controlling operating time of a portable computer system and a peripheral device. A portable computing system that includes a rechargeable power supply and that includes a connection mechanism for coupling to a peripheral device is used to control operating time of the portable computer system and the peripheral device. In one embodiment, a user can choose between maximizing the operating time of the portable computer, maximizing the operating time of the peripheral device, or maximizing the life of the entire system (maximizing the operating time of the portable computer system and the peripheral device). When operating time of the portable computer system is to be maximized, power is sent from the peripheral device to the portable computer system to extend the operating time of the portable computer system. Similarly, when operating time of the peripheral device is to be maximized, power is sent from the rechargeable power supply of the portable computer system to the peripheral device to extend the operating time of the peripheral device. When operating time of the entire system is to be maximized, power is moved such that the operating time for the portable computer system is equal to the operating time of the peripheral device.
Abstract:
The present disclosure relates to an antenna arrangement, comprising a regular array of electrically conducting antenna elements, arranged on a support, embodied and positioned to be displaced between a first position, in which an electrical contact to at least one adjacent antenna element is possible and a second position, with electrical isolation from the adjacent antenna element, a HF contact, for at least one of the antenna elements and a controller, for displacement of the antenna element between the first and second positions and for embodiment of a desired antenna structure.
Abstract:
A navigation and execution mechanism for a computing device includes a navigation interface and a toolbar. The navigation mechanism includes a center selectable switch bounded by first and second selectable switches opposite each other and third and fourth selectable switches opposite each other and adjacent to the first and the second selectable switches. The toolbar is displayed on a screen of the computing device in response to execution of an application within the computing device. The toolbar is configured to display a set of operations corresponding to the application, the toolbar further configured to execute a first operation in response to triggering the center selectable switch, a second operation in response to triggering the first selectable switch, a third operation in response to triggering the second selectable switch. Further, the toolbar is extendable to include two additional toolbars accessible directly through the a single action of the navigation mechanism.