Abstract:
An automatic antenna identification system is provided that includes a connector to which a plurality of different antennas tuned to different respective frequencies or frequency bands may be connected. In addition, the system includes circuitry that automatically identifies which antenna of the plurality of different antennas is connected to the connector based on the respective frequency or frequency band of the antenna.
Abstract:
A stand for a camera device, the stand comprising an attachment element which is detachably fastened to the camera device and at least one support element which is displaceably connected to the attachment element. The support element is displaceable between at least two positions, a “storage” position where the at least one support element essentially lies up against an outer surface of the camera device and an “active” position where the at least one support element is displaced away from the outer surface of the camera device in order to provide a support for supporting the camera device in a steady orientation on a surface. The attachment element and the supporting element are furthermore arranged such that the attachment element remains fastened to the camera device during the displacement of the supporting element between its storage position and its active position. In this way, a stand is provided which may be very easy and convenient for the user to use.
Abstract:
A method and system for providing personalized application recommendations to users of electronic devices. Contextual information is used to build a personalized user knowledge base. The information stored in the personalized user knowledge base may be used to locate applications that may be of interest to the user.
Abstract:
A method includes detecting, via a first microphone coupled to a user's left ear, a sound, detecting, via a second microphone coupled to the user's right ear, the sound, determining a time difference between detection of the sound at the first microphone and detection of the sound at the second microphone, and estimating a user's head size based on the time difference. The method also includes identifying a head-related transfer function (HRTF) associated with the user's head size or modifying, a HRTF based on the user's head size. The method further includes applying the identified HRTF or modified HRTF to audio signals to produce output signals and forwarding the output signals to first and second speakers coupled to the user's left and right ears.
Abstract:
A wireless communication device is configured to communicate signals with a headset worn by a user. The headset includes a sensor that measures the orientation of a user's head to determine which direction the user is looking. The sensor sends that information to the user's device. The device uses the orientation information and a determined geographical position of the user to predict a destination location for the user.
Abstract:
A user controls a function of a mobile terminal with the aid of a motion sensor integrated in a headset. A motion sensor in the headset detects movement of the user's head and transmits head movement signals to the mobile. The mobile terminal uses the head movement signals received from the headset to control a function of the mobile terminal. For example, the mobile terminal may lock or unlock the mobile terminal based on the user's head movement. The mobile terminal may also accept, decline, initiate, or terminate a call based on the user's head movement. Head movement may also be used to navigate desktop icons and menus to perform tasks such as starting programs and selecting music for play back.
Abstract:
A hands-free unit comprises a noise tolerant audio sensor to generate a first audio signal based on detection of audible sounds and an external audio sensor to generate a second audio signal based on detection of the audible sounds. A tunable distortion reduction filter adds high frequency information to the first audio signal and reduces distortion. A control unit detects noise levels based on comparison of first and second audio signals; and selects one of the first and second audio signals based on the detected noise level.
Abstract:
The user interface of an electronic device may be personalized based on one or more images selected by the user. The images are analyzed to create a theme that is applied to the user interface of the electronic device. The theme may be transferred to and applied to the user interface of an accessory.
Abstract:
An automatic antenna identification system is provided that includes a connector to which a plurality of different antennas tuned to different respective frequencies or frequency bands may be connected. In addition, the system includes circuitry that automatically identifies which antenna of the plurality of different antennas is connected to the connector based on the respective frequency or frequency band of the antenna.