Abstract: Noise reduction is performed on the basis of characteristics of an image in a detection range. A noise reduction block 4? performs a second-order differentiation process and a symmetry process to decide adjacent pixels with which noise reduction is preformed for an attention pixel. With the pixel level of the attention pixel in the detection range and the pixel levels of adjacent pixels used for noise reduction, an arithmetic mean processing section 16 calculates a mean value. A median filter 17 selects a median value. With the number of pixels used for noise reduction, it is determined whether the image in the detection range contains a flat portion, a ramp portion, or an edge. The mean value and the median value are weight-added with a weighted coefficient that are changed on the basis of characteristics of the image. The result is substituted for the level of the attention pixel.

Abstract: An imaging apparatus comprising a spectroscopy section for splitting a beam of object light; a first image pickup element and a second image pickup element for converting one of the object light split by the spectroscopy section to image data; a moving picture imaging control section for imaging a moving picture of the object using one image pickup element of the first image pickup element or the second image pickup element; a first still-image photographing control section for photographing a still image of the object using the first image pickup element and the second image pickup element; and a first recording control section for generating single still-image data by synthesizing still-image data acquired by the first image pickup element and still-image data acquired by the second image pickup element according to the first still-image photographing control section and for recording the generated single still-image data to a record section.

Abstract: A new method of reading an imager is achieved. The method comprises providing an imager array comprising n rows and m columns where a pair of rows can be read during a single row access time. A first image field is completed by sequentially reading and storing pixel values of pairs of adjacent rows of the imager array. The reading begins at a first row, and the reading stops when less than three rows are unread. Thereafter pixel values of the next row are read and not stored. Thereafter pixel values of the first row of the imager array are read and not stored. A second image field is completed by sequentially reading and storing pixel values of pairs of adjacent rows. The reading begins at the second row, the reading stops when less than two rows are unread.

Abstract: A closed circuit video magnification system, incorporates a base, upon which the operating components of this system mount, a platform mounted upon the base for shiftable movement both laterally and depth-wise, in the X-Y directions, pivotal mount a LCD screen for projection and viewing of any matter scanned upon the shiftable platform, or of any other images that are detected and picked up by the miniature camera, also incorporated into the structure of this system. The miniature camera is also mounted upon shiftable arms, for scanning downwardly towards the platform, or which can be pivoted vertically, or circularly, in order to view any scene provided in the surrounding area, and which is capable of being picked up by the lens of the camera, for processing and projecting onto the screen, for viewing by the handicapped person. Controls are provided for regulating the amplification, reduction of size, brightness, and contrast, in addition to its on/off control.

Abstract: The present invention reads the image recorded in a recording medium, and displays the read image in a display unit. In a case where a changeover instruction to change the display image to the next image is continuously detected, the reading of the image by a reading unit and a display by the display unit are performed in order, and a display at the display unit is changed depending on whether or not the read image satisfies a predetermined condition.

Abstract: A pixel array in an image sensor, the image sensor and a digital camera including the image sensor. The image sensor includes a pixel array with colored pixels and unfiltered (color filter-free) pixels. Each unfiltered pixel occupies one or more array locations. The colored pixels may be arranged in uninterrupted rows and columns with unfiltered pixels disposed between the uninterrupted rows and columns. The image sensor may in CMOS with the unfiltered pixels reducing low-light noise and improving low-light sensitivity.

Abstract: A solid-state imaging device includes: a pixel array section having a plurality of unit pixels, each including a photoelectric conversion element, arranged therein; driving means for performing a shutter operation for removing charge stored in the photoelectric conversion element and a read operation for reading the charge of an electric signal that is obtained by the photoelectric conversion of the photoelectric conversion element and is then stored in the photoelectric conversion element; and control means, when a unit pixel driving mode is changed from a first driving mode to a second driving mode in the units of frames, for changing the shutter operation to the second driving mode while keeping the read operation in the first driving mode for a period corresponding to one frame in the current frame, and changing the read operation to the second driving mode in the next frame.

Abstract: An image processing device is provided. The image processing device includes per-block motion vector calculating means for calculating a motion vector between two pictures of an image input in picture units sequentially, performing block matching in each of divided regions obtained by dividing one picture into a plurality of regions, and calculating a per-block motion vector for each of said divided regions. The image processing device also includes translation amount calculating means for calculating an amount of translation of the other of said two pictures with respect to one of said two pictures from a plurality of said per-block motion vectors calculated by said per-block motion vector calculating means. The image processing device also includes rotation angle calculating means for calculating a rotation angle of the other of said two pictures with respect to one of said two pictures from the plurality of said per-block motion vectors calculated by said per-block motion vector calculating means.

Abstract: An imaging processing device and method where, when areas having a luminance difference set by a user, for example, 45 dB or more, are preset in an image captured by a camera, an area, the luminance level of which exceeds a predetermined threshold level, may be displayed as a gray level or a black level, with the luminance thereof decreased by a certain luminance level, or may be displayed while a mask, having a gray or black level, and the area, the luminance level of which exceeds the predetermined threshold level, overlap each other. Therefore, glare caused by a high luminance subject can be decreased, or other subjects present in a backlit image can be easily recognized.

Abstract: An apparatus and method of automatic conversion to a digital zoom mode allow a digital zoom to be executed by automatically converting from a high-resolution mode that does not support a digital zoom to a highest resolution mode supporting the digital zoom when a digital zoom key is pushed. The apparatus includes a key pad having a digital zoom key, a video processing unit for processing video data from the camera unit to determine a resolution and execute a digital zoom function, and a control unit for controlling the video processing unit to convert a resolution mode that does not support the digital zoom function to a highest resolution mode among resolution modes supporting the digital zoom function and execute the digital zoom function when the digital zoom key is pressed in the resolution mode that does not support the digital zoom function.

Abstract: A photoelectric conversion device includes a pixel output line, a pixel which outputs a signal to the pixel output line, an amplifier unit which amplifies the signal output to the pixel output line, and a holding capacitor which holds the signal output from the amplifier unit. The photoelectric conversion device outputs a pixel signal based on the signal held by the holding capacitor. The amplifier unit includes a variable amplifier stage which amplifies a signal output to the pixel output line at a gain selected from a plurality of gains, and a buffer stage which amplifies the signal output from the variable amplifier stage, the amplified signal being held by the holding capacitor to hold the signal.

Abstract: An imaging device includes an image sensor that includes imaging pixels that are disposed in a two-dimensional array and focus detection pixels disposed in part of the array of the imaging pixels, a coefficient setting circuit that sets a conversion coefficient to be used to convert an output from each focus detection pixel to an image output at the focus detection pixel, in correspondence to an aperture value set at an imaging optical system, and an estimating circuit that estimates the image output at the focus detection pixel based upon the conversion coefficient and the output from the focus detection pixel.

Abstract: To provide a configuration including a fully differential amplifier in which decrease in a reading speed can be suppressed. A photoelectric conversion apparatus according to the present invention includes a pixel area where a plurality of pixels are arranged; an amplifier configured to amplify a signal from the pixel area; a plurality of signal paths for transmitting the signals from the pixel area to the amplifier. The amplifier is a fully differential amplifier which includes a plurality of input terminals including a first input terminal and a second input terminal to which the signals from the plurality of signal paths are supplied and a plurality of output terminals including a first output terminal and a second output terminal and the input terminals and the output terminals have no feedback path provided therebetween.

Abstract: A flash-based strategy is used to separate foreground information from background information within image information. In this strategy, a first image is taken without the use of flash. A second image is taken of the same subject matter with the use of flash. The foreground information in the flash image is illuminated by the flash to a much greater extent than the background information. Based on this property, the strategy applies processing to extract the foreground information from the background information. The strategy supplements the flash information by also taking into consideration motion information and color information.

Abstract: A camera has a camera body formed in a longitudinal rectangular shape, and in the intermediate portion of the camera body, a flexion/transformation mechanism dividing the camera body into an image photographing section including a lens system for capturing an optical image of a subject and a gripping section for a photographer to grip the camera body at the time of photographing is provided. The flexion/transformation mechanism is configured so as to dispose the image photographing section and the gripping section on a same straight line such that the camera body is formed in the longitudinal rectangular shape in a first state, and to dispose the gripping section angled relative to said image photographing section in a second state.

Abstract: A solid-state imaging device includes an imaging unit, a charge control unit, and a horizontal transfer unit. The imaging unit includes a plurality of pixels arranged into a matrix for performing photoelectric conversion, and a plurality of vertical transfer units arranged in columns for vertically transferring signal charges of the plurality of pixels on a column-by-column basis. In a predetermined operation mode, a predetermined number of columns greater than one are used as a unit, and the charge control unit stops transferring charges from a vertical transfer unit in a predetermined column of the predetermined number of columns, and adds the signal charges transferred from the vertical transfer units in the two or more remaining columns of the predetermined number of columns to output the added signal charges. The horizontal transfer unit horizontally transfers the signal charges output from the charge control unit.

Abstract: In an image taking system such as digital camera, especially when a predetermined objective body such as a face is included, the predetermined objective body is detected from a pre-taken-image or a running image in order to obtain an image reflecting a photographer's intention. Out of image obtaining functions comprising at least one function for setting at least one of image taking conditions in taking the pre-taken-image or the running image, and/or at least one of image taking functions for setting at least one image processing condition to be carried out on the image is set according to the predetermined object body and an image is obtained by the use of only the set image obtaining function.

Abstract: The present invention relates to imaging systems that generally include at least a first substrate, on which a charge coupled device imaging sensor array is formed, and a second substrate on which readout circuitry is formed. Information related to the amount of light incident on pixels included in the imaging sensor array is passed to the readout circuitry as a voltage signal over an interconnection between the imaging sensor array and the readout circuitry. Accordingly, the readout circuitry may sample the output of the imaging sensor array multiple times. The system allows different processes to be used for forming the imaging sensor array and the readout circuitry, while also supporting multiple samples of information provided by the imaging sensor array.

Abstract: A versatile analog front end and timing generator (AFE/TG) integrated circuit has output modes wherein multiple identical AFE/TGs output digitized sensor data to a single digital image processor (DIP) without intervening discrete multiplexing circuitry. In one embodiment, the AFE/TG is operable in either a bit slice mode or a time slice mode. In the bit slice mode, each of the multiple AFE/TGs sections up a word of pixel information into subsets of bits, and then communicates the subsets in parallel, one subset after another, across point-to-point connections to corresponding terminals of the DIP. The DIP captures the subsets of bits, and reassembles the subsets to recreate the word of pixel information. Each of the multiple AFE/TGs communicates words of pixel information to a different set of terminals on the DIP in this way, thereby avoiding timing complications, loading and/or expense associated with communicating the pixel information using time multiplexing techniques.

Abstract: An image sensing apparatus includes: an image sensing device for sensing light representing a subject image; a first component extractor for extracting a first component having a predetermined frequency out of a photographic image obtained by the image sensing device; a second component extractor for extracting a second component having a frequency higher than the frequency of the first component out of the photographic image; a compressor for compressing a dynamic range of the first component extracted by the first component extractor with a predetermined compression ratio; an image generator for generating an image based on a compressed first component obtained by compressing the dynamic range of the first component by the compressor, and the second component extracted by the second component extractor; and a compression correction coefficient calculator for calculating a compression correction coefficient used in compressing the first component, using the second component extracted by the second component