Abstract:
An image processing apparatus, in which an object image focused by a lens is split into a plurality of images by means of a light splitting section. These images are converted into image data items by a plurality of imaging devices which are arranged with their imaging area overlapping in part. The image data items are stored temporarily in an image storing section. A displacement detecting section detects displacement coefficients (rotation angle R and parallel displacement S) from the image signals representing the mutual overlap region of two images which are to be combined and which are represented by two image data items read from the image storing section. The position of any specified pixel of the image displayed is identified by the pixel signal generated by the corresponding pixel of any imaging device. An interpolation section performs interpolation on the pixel values of the imaging device, thereby correcting the values of the other pixels of the image displayed and ultimately generating interpolated image signals. The interpolated image signals are combined with the image signals produced by the imaging device, whereby a display section displays a high-resolution image.
Abstract:
A heat exchanger support structure has a heat exchanger, a heat exchanger support supporting the heat exchanger, and motor fan units. The heat exchanger support is integrally formed with motor fan shroud portions allowing the air flow caused by motor fans. Electric motors driving the fans are respectively surrounded by a cylindrical shroud member, which has stays received in holding portions formed on the shroud portion with an elastic member interposed between the stay and the holding portion. This results in that the shroud member, the motor fan unit, and the elastic member function as a dynamic damper.
Abstract:
Disclosed herein is an image processing apparatus, in which an object image focused by a lens is split into a plurality of images by means of a light splitting section. These images are converted into image data items by a plurality of imaging devices which are arranged with their imaging area overlapping in part. The image data items are stored temporarily in an image storing section. A displacement detecting section detects displacement coefficients (rotation angle R and parallel displacement S) from the image signals representing the mutual overlap region of two images which are to be combined and which are represented by two image data items read from the image storing section. The position of any specified pixel of the image displayed is identified by the pixel signal generated by the corresponding pixel of any imaging device. An interpolation section performs interpolation on the pixel values of the imaging device, thereby correcting the values of the other pixels of the image displayed and ultimately generating interpolated image signals. The interpolated image signals are combined with the image signals produced by the imaging device, whereby a display section displays a high-resolution image.
Abstract:
A code pattern of an information recording medium contains processing information necessary for editing data according to a restoration processing procedure for restoring multimedia information. The restoration processing procedure has a hierarchical structure of layers 1 to 5. The layer 5 has a file management function. The layer 4 has a function of collecting subset elements to create a subset and converting the same to create a data transfer unit or sector which the layer 5 deals with. The layer 3 or lower layer has a function of reading the code pattern from the information recording medium, subjecting the code pattern to a preset restoration process and outputting the subset elements.
Abstract:
An input signal is time-frequency transformed, then the frequency-domain coefficients are divided into coefficient segments of about 100 Hz width to generate a sequence of coefficient segments, and the sequence of coefficient segments is split into subbands each consisting of plural coefficient segments. A threshold value is determined based on the intensity of each coefficient segment in each subband. The intensity of each coefficient segment is compared with the threshold value, and the coefficient segments are classified into low- and high-intensity groups. The coefficient segments are quantized for each group, or they are flattened respectively and then quantized through recombination.
Abstract:
Dot codes (i.e., code images) are printed on a paper sheet. Each dot code has a variable part and a fixed part. The variable part is specific to the dot code, whereas the fixed part is common to the dot codes. The fixed part represents an audio mark that informs a user when the user should move a dot code reader (i.e., a code image reading apparatus) to read the next dot code. As the user moves the dot code reader over any dot code, the reader reproduces an audio message from the variable part and then an audio mark from the fixed part. The user hears the audio message and the audio mark through an earphone. Upon hearing the audio mark indicating that the audio message has been completely reproduced, the user may move the reader to the next dot code.
Abstract:
A highly reliable semiconductor device having a contact hole with a sufficient area can be obtained. An interlevel insulating film is formed on a conductive region having a first width. A through hole which exposes the conductive region is formed at the interlevel insulating film. A coating film is formed on the interlevel insulating film. In the coating film, an opening having a second width larger than the first width is formed in a region located on the through hole. An interconnect line is formed in a region located on the opening. A conductor film for electrically connecting the conductive region and the interconnect line is generated within the through hole.
Abstract:
A dot code generator receives multimedia information to be coded and generates a dot code. A medium size detector detects a size of a print sheet on the basis of print information. A print position setting unit stores information on dot code print positions in accordance with various medium sizes, and delivers the information to a system controller. The system controller determines the dot code print position corresponding to the size of the print sheet detected by the medium size detector, on the basis of the information input from the print position setting unit, and edits and synthesizes the dot code generated by the dot code generator and sheet print information delivered from a personal computer. The synthesized information is printed out by a printer.
Abstract:
An illumination section illuminates a code on a recording medium, on which data about audio information is recorded as an optically readable code, by repeatedly emitting light at predetermined intervals. An image sensing section receives each of light beams reflected by the recording medium including the code illuminated by the illumination section in a read/scan operation for the code, and outputs a corresponding image sensing signal. A signal processing section decodes the data about the audio information by processing the image sensing signal output from the image sensing section. A reproduction output section reproduces the audio information on the basis of the data decoded by the signal processing section and outputs the information. A supply voltage detection section detects a supply voltage to a power supply circuit system including a battery used as a power supply of the apparatus. A detection timing control section controls the supply voltage detection section to detect the supply voltage at a predetermined timing in image sensing operation performed by the image sensing section at the time of light emission after the supply voltage to the power supply circuit system is turned on by a power switch and first light emission is performed by the illumination section.