Abstract:
A mobile terminal device includes a display section having a display screen, an input section having a touch input region on the display screen, and a control section for displaying a plurality of keys. The display screen is provided as a software keyboard where a touch operation on a specific key causes an input of the specific key. In the specific display region on the display screen that can display operation keys on the software keyboard, the control section selects these keys from a previously prepared set of input candidate key groups. In response to a specific operation on the specific display region, the control section allows the plurality of keys to be displayed on the specific display region. In response to touch on a desired key in the specific display region, the control section determines that an input of the key has been performed.
Abstract:
A touch screen comprises a display displaying through a front surface of the display and a sensor system. The sensor system is interposed between a back surface of the display and a bottom surface of a housing in which the touch screen is arranged. The sensor system comprises a first electrode assembly and a second electrode assembly and is configured to sense capacitance between the first electrode assembly and the second electrode assembly. The touch screen further comprises a processor being configured to determine based on the sensed capacitance a force resulting from the touch action.
Abstract:
A headset device includes a component to monitor a predetermined proximity of the headset device. The predetermined proximity includes an area where a user of the headset is positioned during operation of the headset. The headset device includes a processor to execute instructions to monitor the predetermined proximity of the headset. The processor is also to determine whether a detectable object is within the predetermined proximity of the headset based on a characteristic property of the detectable object. The characteristic property of the detectable object is one of a black body emitting property or a conducting property. Additionally, the processor is to place the headset into an active state when it is determined that the detectable object is within the predetermined proximity, and place the headset into a standby state when it is determined that the detectable object is not within the predetermined proximity.
Abstract:
A consumer electronic device has an orientation sensor and a lock control. The orientation sensor outputs signals identifying the orientation of the device, while the lock control to allow a user to move the device from a locked state to an unlocked state. The device also includes a plurality of application programs stored in memory. Responsive to the user unlocking the device, a controller will launch a selected application program. The application that is launched by the device is based on an orientation of the device.
Abstract:
A microphone array includes a left microphone, a right microphone and a processor to receive a right microphone signal from the right microphone and a left microphone signal from the left microphone. The processor determines a timing difference between the left microphone signal and the right microphone signal. The processor determines whether the timing difference is within a time threshold. The processor time shifts one of the left microphone signal and the right microphone signal based on the timing difference. The processor also sums the shifted microphone signal and the other microphone signal to form an output signal.
Abstract:
A communication device (100) comprises at least a first receive path (12) and a second receive path (22). The first receive path (12) is configured to receive first radio signals, and the second receive path (22) is configured to receive second radio signals. Further, the communication device (100) comprises a reception processor (50). The reception processor (50) is configured to process the first radio signals and the second radio signals to generate a data output signal (55). Further, the communication device (100) comprises a first oscillator (13) and a second oscillator (23). The first oscillator (13) is configured to supply a first oscillator signal to the first receive path (12). The second oscillator (23) is configured to supply a second oscillator signal to the second receive path (22). Further, the communication device comprises a scanning processor (60) coupled at least to the second receive path (22) and to the second oscillator (23). The scanning processor (60) is configured to scan for radio signals from at least one base station by evaluating the second radio signals received by the second receive path (22) and controlling the second oscillator (23) to provide the second oscillator signal with frequencies which are different from a frequency of the first oscillator signal.
Abstract:
An electronic device has a touch-sensitive display and a controller that executes an application. The application bisects a display into a plurality of regions using a timeline. In a first region on a first side of the timeline, the application displays events that are originated by the user of the device. In a second region on a second, opposite side of the timeline, the application displays events that are associated with the user, but are originated by others. Activities associated with the user are displayed along the timeline. The events and activities on the timeline can be shared with other users using drag-n-drop operations.
Abstract:
Method and apparatus for switching talking mode automatically applicable to electronic equipment, which includes an accelerometer, proximity sensor and video camera. The method includes acquiring gravity information from the accelerometer during conversation between the electronic equipment and the other side of the conversation, and judging whether the electronic equipment is in a vertical state according to the gravity information; activating the video camera to take a capturing action if the electronic equipment is not in a vertical state, and acquiring distance information and/or image information, the distance information used for indicating distance to the captured object, and the image information used for indicating the captured object; and switching the talking mode to speakerphone mode if distance indicated by the distance information is greater than a first threshold value, and/or resolution of the image indicated by the image information is greater than a second threshold value.
Abstract:
A charging device, for charging a rechargeable device, which comprises a power converter stage, adapted to convert power from a power source to charge the rechargeable device when the rechargeable device is connected to the charging device, and an energy bank, adapted for fast charging of the rechargeable device. The charging by the energy bank is independent but simultaneous to the charging of the rechargeable device by the power converter stage.
Abstract:
A method is provided for forming a current carrying structure with improved electrostatic discharge protection. The current carrying structure includes a conductive material layer and a voltage switchable dielectric layer adapted to switch between insulative and conductive at a predetermined voltage between the ground plane and the conductive material. An aperture is formed through the voltage switchable dielectric layer, and conductive material is deposited in the aperture to form a conductive pathway between the voltage switchable dielectric layer and another layer. A spark gap is created between the conductive material of the aperture and a ground portion using a laser to remove a portion of the conductive material layer from an area surrounding the aperture without substantially modifying physical properties of the underlying switchable dielectric layer.