Abstract:
According to the present invention, a software-defined radio terminal apparatus is a software-defined radio terminal apparatus which is adaptively constituted based on radio applications, and may comprise a storage unit, a microprocessor, and a baseband accelerator. The microprocessor reads, from the storage unit, a code, including a radio controller layer and a baseband driver layer, and executes the code, wherein the radio controller layer delivers a control command for controlling the baseband accelerator and information to be transmitted, from an upper layer to the baseband accelerator, and delivers the information received from the baseband accelerator to the upper layer, wherein the baseband driver layer provides interface between the radio controller layer and the baseband accelerator. In addition, the microprocessor is configured to load at least one functional block required for the implementation of a radio application from the storage unit to the baseband accelerator, and the functional block loaded to the baseband accelerator includes a baseband control functional block for controlling the baseband accelerator in real time.
Abstract:
Disclosed is a software-defined radio terminal device of the present invention. The software-defined radio terminal device of the present invention is a software-defined radio terminal device configured adaptively according to a radio application, and comprises: a storage unit, a micro processor, and a baseband accelerator, wherein the micro processor delivers from the upper layer to the baseband accelerator a control command for controlling the baseband accelerator and information to be transmitted, reads from the storage unit a code including a radio controller layer delivering the information received from the baseband accelerator to the upper layer, and a baseband driver layer that enables the interface between the radio controller layer and the baseband accelerator and implements the code thereby, and is configured to load from the storage unit to the baseband accelerator at least one function block needed for implementing the radio application, and the function block loaded to the baseband accelerator is configured to include a baseband control function block that controls in real-time the baseband accelerator.
Abstract:
An instrument-playing portable communication device is provided. The device includes an instrument-playing key unit having one or more keys, provided on a body of the instrument-playing portable communication device. When a user selects a chord of a selected instrument by pressing at least one of the one or more keys, the instrument-playing key unit converts the at least one key press into a first signal. The device also includes a sensor unit mounted in the body, for sensing a motion of a user. When the user presses the at least one of the one or more keys and moves in a location near the sensor unit, the sensor unit senses a motion of the user and converts the motion into a second signal. The device further includes a controller for receiving the first signal from the instrument-playing key unit and the second signal from the sensor unit, generating a tone frequency of the selected instrument based on the received signals, and converting the tone frequency into a tone. The device additionally includes an amplifier for amplifying the tone output from the controller, and outputting the amplified tone through a speaker mounted in the body.
Abstract:
Embodiments of the invention may provide an apparatus and method for forming an ultrasound image, wherein an ultrasound signal is transmitted and received along a scan line determined based on a virtual common point at each of a plurality of transducers.In accordance with an embodiment of the present invention, the image frames (as many as desired) for forming a composite image may be obtained, thereby ultimately causing the quality of the ultrasound image to be enhanced.
Abstract:
Embodiments of the present invention may provide an ultrasound imaging system and method for forming multiple receiving scan lines from one original receiving scan line. Ultrasound signals reflected from one original receiving scan line are converted into analog signals having a center frequency. The analog signals are converted into digital data. The digital data are coarsely delayed, wherein the coarsely delayed data are extracted at a rate of n-times of the center frequency. Data of the multiple receiving scan lines are formed by performing fine delay and interpolation. For the interpolation, parts of the extracted data are selected at a rate of n-times of the center frequency and the multiple receiving scan lines.
Abstract:
Disclosed is a portable communication apparatus. The portable communication apparatus includes a main housing having an upper surface divided into a first area including a first key array having a plurality of keys and a second area aligned downwardly from the first area, and a swing housing provided at an upper surface thereof with a display unit and aligned in the second area while facing the second area in order to selectively open or close the second area.
Abstract:
A sliding/folding-type portable apparatus includes a body housing; a sliding housing adapted to travel along the longitudinal direction of the body housing while continuously facing it to expose or hide the top surface of the body housing; a folding housing adapted to rotate about a first hinge axis to fold on or unfold from the sliding housing and to rotate about a second hinge axis, which is perpendicular to the first hinge axis, to reverse the top and bottom surfaces thereof; and a dual-axis hinge sliding module connected between the sliding housing and the folding housing to provide the folding housing with the first and second hinge axes.
Abstract:
The present invention relates to an ultrasound system. The ultrasound system includes: an image processing unit for forming at least one 3-dimensional ultrasound image based on ultrasound echoes reflected from a target object; an input unit for receiving a setup instruction; and a control unit for outputting a first control signal for setting at least one predefined sample volume on the 3-dimensional ultrasound image in response to the setup instruction. The image processing unit is further configured to form at least one spectral Doppler image corresponding to the sample volume in response to the first control signal.