Abstract:
A wireless device and a display control method in a wireless device are disclosed. The wireless device is capable of making a call to another wireless device of a call partner and includes a first coil configured to generate an induced electromotive force by linking with magnetic flux from an external second coil, a battery configured to be supplied and charged with a charging current by the induced electromotive force, a wireless communication unit configured to wirelessly communicate with the wireless device of the call partner, a display, and at least one processor configured to communicate with the wireless device of the call partner via the wireless communication unit to perform call-related processing, and when a call is made during charging using the induced electromotive force, display charging information on the display The charging information includes information regarding a reduction in the charging current during the call.
Abstract:
A wireless device and a display control method in a wireless device are disclosed. The wireless device is capable of making a call to another wireless device of a call partner and includes a first coil configured to generate an induced electromotive force by linking with magnetic flux from an external second coil, a battery configured to be supplied and charged with a charging current by the induced electromotive force, a wireless communication unit configured to wirelessly communicate with the wireless device of the call partner, a display, and at least one processor configured to communicate with the wireless device of the call partner via the wireless communication unit to perform call-related processing, and when a call is made during charging using the induced electromotive force, display charging information on the display The charging information includes information regarding a reduction in the charging current during the call.
Abstract:
A voice message system for a pay phone telephone network interposes an Intercept Processing Subsystem (25) in the line connections (22) between the pay telephones (11) and the central office (10). A Voice Processing Subsystem (16) is connected to the central office switch (14) by a trunk (17). A caller at a pay station enters a called telephone number (55) which is stored in the Intercept Processing Subsystem (25, 26). The Intercept Processing Subsystem monitors the line connection to determine if the called telephone remains on-hook for a predetermined number of ring tones or is busy for a predetermined number of busy tones (82). If the ring no answer or busy condition maintains, the Intercept Processing Subsystem reduces the volume of the ring or busy tones on the line connection and superimposes a voice announcement thereon offering the voice message service to the caller (83). If the caller enters an acceptance key sequence or coin deposit (84), the Intercept Processing Subsystem splits the line connection (101), sends a Thank You message to the calling telephone (104) and speed dials the Voice Processing Subsystem (109). When the Voice Processing Subsystem answers (114), the Intercept Processing Subsystem sends a voice prompt to the calling telephone explaining that at the tone a voice message may be entered and delivery thereof will be attempted at predetermined intervals for a predetermined time (115). Simultaneously, with sending the voice prompt to the caller, the Intercept Processing Subsystem transmits the call parameters to the voice Processing Subsystem (115) utilizing a protocol with interleaved validity acknowledgement signals from the Voice Processing Subsystem. If the transmission of the call parameters is valid (116), the Intercept Processing Subsystem reestablishes the line connection between the calling telephone and the central office switch and the voice message from the caller is passed through the Intercept Processing Subsystem to the Voice Processing Subsystem for recording thereat (118) for subsequent delivery to the called station (124).
Abstract:
An electronic device includes: a magnetic sensor; a communication module; at least one processor operatively connected with the magnetic sensor and the communication module. The at least one processor is configured to: identify that a magnetic signal is detected through the magnetic sensor; identify, based on a magnitude of the detected magnetic signal, whether the magnetic signal is generated by coupling the electronic device with a cover device; and based on identifying that the magnetic signal is generated by coupling the electronic device with the cover device, correct sensor data of the magnetic sensor.
Abstract:
A processor includes a scalar computation unit; a vector co-processor coupled to the scalar computation unit; and one or more function-specific engines coupled to the scalar computation unit, the engines adapted to minimize data exchange penalties by processing small in-out bit slices.
Abstract:
A 1-chip microcomputer of the present invention has (a) a monitor flag for setting a flag indicating that a specified address space is accessed, (b) an access permission address range setting register, for setting an address range in which an access is permitted while the flag is set, (c) an access permission area detection circuit for judging whether the access is made within the address range thus set, (d) an access permission setting register, for setting whether or not an access with respect to an address other than the address range should be permitted, and (e) memory read-out control circuit and memory writing control circuit for controlling an access with respect to a nonvolatile memory based on a result thus judged and content set by the access permission setting register. With the arrangement, it is possible to provide a 1-chip microcomputer that maintains the security among application programs.
Abstract:
A framework in a cloud network that may allow for debugging at multiple vantage points at different layers (e.g., layer 2, layer 3, etc.). The methods may provide tracer or measurement services that filter, capture, or forward flows that may include packets, calls, or protocols to look for particular signatures.
Abstract:
The present disclosure relates to titanium or titanium alloy (e.g., titanium/copper alloy) mobile phone chassis, and methods for making and using same.
Abstract:
A 1-chip microcomputer of the present invention has (a) a monitor flag for setting a flag indicating that a specified address space is accessed, (b) an access permission address range setting register, for setting an address range in which an access is permitted while the flag is set, (c) an access permission area detection circuit for judging whether the access is made within the address range thus set, (d) an access permission setting register, for setting whether or not an access with respect to an address other than the address range should be permitted, and (e) memory read-out control circuit and memory writing control circuit for controlling an access with respect to a nonvolatile memory based on a result thus judged and content set by the access permission setting register. With the arrangement, it is possible to provide a 1-chip microcomputer that maintains the security among application programs.
Abstract:
The present disclosure relates to titanium or titanium alloy (e.g., titanium/copper alloy) mobile phone chassis, and methods for making and using same.