Abstract:
An imaging apparatus performs information display according to an appropriate display type considering imaging conditions. The imaging apparatus includes a display type setting unit to set any one of a plurality of display types as a display type for an information display to be displayed together with a through image, a mode setting unit to set a multiple-exposure imaging mode, a control unit to perform a control, when the multiple-exposure imaging mode is set and an image to be multiple-composited with the through image can be acquired, to change the display type to a display type dedicated to the multiple-exposure imaging mode for displaying at least one of the number of multiple-exposure image capturing scheduled images, the number of multiple-exposure image capturing completed images, the number of images remaining to reach the number of multiple-exposure image capturing scheduled images, and an icon indicating that the multiple-exposure imaging mode is set.
Abstract:
An X-ray apparatus in this example of the invention includes a compression unit that enables to move independently of an X-ray tube supporting device and an X-ray detector for compressing a region of interest of a subject; and a connecting part for connecting the X-ray detector to the compression unit and disconnecting the X-ray detector from the compression unit. Consequently, when the compression unit is not used, the compression unit is located in a retracted position. Thus a space can be secured around the subject placed on a top board. On the other hand, when the compression unit is used, the connecting part connects the X-ray detector to the compression unit. Thereby a compression member of the compression unit can always press a site of interest of the subject at the center of a detecting surface of the X-ray detector.
Abstract:
A scalable encoding device capable of reducing an encoding rate to reduce a circuit scale while preventing sound quality deterioration of a decoded signal. An extension layer is coarsely divided into a system for processing a first channel and a system for processing a second channel. A sound source predictor for processing the first channel predicts a drive sound source signal of the first channel from a drive sound source signal of a monaural signal, and outputs the predicted drive sound source signal through a multiplier to a first CELP encoder. A sound source predictor for processing the second channel predicts the drive sound source signal of the second channel from the drive sound source signal of the monaural signal and the output from the first CELP encoder, and outputs the predicted drive sound source signal through a multiplier to a second CELP encoder. The first and second CELP encoders perform CELP encoding operations of the individual channels using individual predicted drive sound source signals.
Abstract:
A sound decoding device is capable of improving the lost frame compensation performance and improving quality of the decoded sound. A rise frame sound source compensation unit generates a compensation sound source signal when the current frame is a lost frame and a rise frame. An average sound source pattern update unit updates the average sound source pattern held in an average sound source pattern holding unit over a plurality of frames. When a frame is lost, an LPC synthesis unit performs LPC synthesis on a decoded sound source signal by using the compensation sound source signal inputted via a switching unit and a decoded LPC parameter from an LPC decoding unit and outputs the compensation decoded sound signal.
Abstract:
There is provided a wide-band LSP prediction device and others capable of predicting a wide-band LSP from a narrow-band LSP with a high quantization efficiency and a high accuracy while suppressing the size of a conversion table correlating the narrow-band LSP to the wide-band LSP. In this device, a non-linear prediction unit (102) performs non-linear prediction by using a converted wide-band LSP inputted from a narrow-band/wide-band conversion unit (101) and inputs the non-linear prediction result to an amplifier (103). The converted wide-band LSP is inputted to an amplifier (104). An adder (122) adds multiplication results (vectors) inputted from the amplifiers (103, 104).
Abstract:
An audio data transmitting/receiving apparatus for realizing a high-quality frame compensation in audio communications. In an audio data transmitting apparatus (10), a delay part (104) subjects multi-channel audio data to a delay process that delays the L-ch encoded data relative to the R-ch encoded data by a predetermined delay amount. A multiplexing part (106) multiplexes the audio data as subjected to the delay process. A transmitting part (108) transmits the audio data as multiplexed. In an audio data receiving apparatus (20), a separating part (114) separates, for each channel, the audio data received from the audio data transmitting apparatus (10). A decoding part (118) decodes, for each channel, the audio data as separated. If there has occurred a loss or error in the audio data as separated, then a frame compensating part (120) uses one of the L-ch and R-ch encoded data to compensate for the loss or error in the other encoded data.
Abstract:
The present invention relates to a receiver capable of reducing influence of disturbance waves and capable of receiving analog and digital broadcast signals without interference with a single front end module, without leading to complexity of the configuration.A receiver 10 includes, on a module board 11, a first terrestrial wave tuner 16 and second terrestrial wave tuner 17 which receive broadcast signals of a first frequency band, and a first satellite wave tuner 14 which receives broadcast signals of a second frequency band different from the first frequency band, with the first satellite wave tuner 14 being situated between the first terrestrial wave tuner 16 and the second terrestrial wave tuner 17. The present invention can be applied to receivers receiving broadcast signals of different frequency bands, for example.
Abstract:
An object of the invention is to provide a front side member structure that can improve yield strength against a moment generated due to a vehicle collision and the like.A front side member structure according to the invention is provided at a lower portion of a vehicle so as to extend in a longitudinal direction of the vehicle and is used to form a frame of the vehicle. The front side member structure includes an under portion that extends in the longitudinal direction, and a kick portion that is provided at a front portion of the under portion and extends forward and upward. A front contour of the kick portion in the side view of the kick portion is inclined at an angle closer to a right angle than a rear contour of the kick portion in the side view of the kick portion. Accordingly, it is possible to reduce the cross section of a kick member at an upper portion of the kick member where a moment generated due to a vehicle collision and the like is small, and to increase the cross section of the kick member at a lower portion of the kick member where a generated moment is large. Therefore, it is possible to increase yield strength against a moment at a portion where a generated moment is large. As a result, it is possible to achieve the above-mentioned object.
Abstract:
A vehicle front structure related to the invention includes a front side member having a kick section extending obliquely downward toward the rear, a member front half section, and a member rear half section. A sub-frame juxtaposed below the front side member abuts on the member rear half section. A rear end portion of the sub-frame is formed with a first inclination portion which extends obliquely downward toward the rear and abuts on the front side member. The front side member 1 is formed with a second inclination portion which abuts on the first inclination portion. The first inclination portion is held so as to be movable relative to the second inclination portion.
Abstract:
A garnish has an upper mounting projection concealed by a corner pad and a lower mounting projection concealed by a lower end of a vertical sash portion. The upper mounting projection is mounted in an upper mounting hole of the vertical sash portion. The lower mounting projection is mounted in a lower mounting hole of an outer panel. The upper mounting hole is concealed by the corner pad, and the lower mounting hole is concealed by the lower end of the vertical sash portion. This ensures a high quality appearance of the garnish without employing additional materials or components. Also, the garnish is mounted in a front door without reducing the surface area of the corresponding window of the vehicle.