Abstract:
The deterioration of image quality due to the mixture of light during pixel mixture is prevented. A filter that transmits a green light component is formed on a light receiving surface of a photoelectric conversion element and a filter that transmits a red light component is formed on a light receiving surface of a photoelectric conversion element. Light which is vertically incident on the filter is incident on the corresponding photoelectric conversion element. However, light which is obliquely incident on the filter is mixed with a photoelectric conversion element adjacent to the corresponding photoelectric conversion element. When pixel mixture is performed, mixed pixel data is reduced from the data of a mixed pixel to perform mixture correction.
Abstract:
In the present invention, effective thinned reading is performed when using an imaging device provided with a color filter other than a Bayer array. This imaging device (10) is provided with: an imaging element (14) containing a plurality of photoelectric conversion elements arrayed in a first and second direction; a color filter, wherein a basic array pattern resulting from a first and second filter being disposed in a predetermined pattern of N×M pixels and the first and second filter being disposed in a first and second direction is disposed repeatedly, and the first filter is disposed in a first-third direction in the color filter; a line image data generation means that, from the imaging element (14), reads the pixel signals of a plurality of pixels at a set cycle, and from the read pixel signals, generates line image data comprising pixel signals of pixels arrayed along the second direction and arrayed in an (N+k) line cycle in the first direction among the plurality of pixels; and an image data generation means that generates image data on the basis of the line image data.
Abstract:
An imaging apparatus includes an imager, an imaging controller and a display controller as defined herein, a time required for the first rolling readout drive is longer than a time required for each of the rolling reset drive, the rolling shutter drive and the second rolling readout drive, and in an imaging mode in which the imaging controller performs the first drive while continuously performing the second drive, the imaging controller sets a first start timing of the second drive performed first after a start of the first drive to be during an implementation period of the first rolling readout drive in the first drive, and synchronizes a second start timing of the rolling shutter drive performed first after the start of the first drive with the display update timing that comes first after an end of the first rolling readout drive.
Abstract:
An image processing device according to the invention includes: a lens information acquisition unit; a color mixture information determination unit; mosaic image acquisition unit that, when the color mixture information determination unit determines that the color mixture information is unidentified, reads, from the color imaging element, a second mosaic image obtained by reducing the number of types of first pixels in the first mosaic image which includes a pixel of a first color formed by at least one color and a pixel of a second color formed by at least one color and in which the number of types of first pixels determined by the arrangement of pixels that are adjacent to a first pixel, which is the pixel of the first color, at a minimum pixel pitch in four directions is equal to or greater than 4; a color mixture correction unit; and a synchronization unit.
Abstract:
Provided is a technique for improving the quality of an image obtained by a pupil-division-type stereoscopic imaging device. First and second images obtained by the stereoscopic imaging device according to the present invention have the shading of an object in a pupil division direction. Therefore, when the first and second images are composed, reference data in which shading is cancelled is generated. The amount of shading correction for the first and second images is determined on the basis of the reference data and shading correction is performed on the first and second images on the basis of the determined amount of shading correction.
Abstract:
According to the present invention, provided is an image capture device, an image processing method, and a non-transitory computer readable medium storing a program capable of detecting a direction of incidence of abnormal oblique incident light and reducing an effect of color mixture caused by the abnormal oblique incident light. An image capture device 10 includes an abnormal oblique-incident-light detection portion 34 and a correction portion 36. An abnormal oblique-incident-light detection portion 34 detects abnormal oblique incident light originated from a first direction by comparing the pixel data of first first-direction same-color adjacent pixels, second first-direction same-color adjacent pixels, first first-direction different-color adjacent pixels, and second first-direction different-color adjacent pixels.
Abstract:
An imaging apparatus (10) includes: an image pickup device (14) including plural photoelectric conversion elements arrayed in a predetermined first direction and second direction; a color filter that has a repeatedly disposed basic array pattern that includes a first filter corresponding to a first color that contributes most to obtaining a brightness signal, and second filters corresponding second colors, placed in a predetermined pattern; a drive section (22) that drives the image pickup device (14) such that, for an array of pixels to read from the image pickup device (14), pixel data of pixels placed at a set cycle in at least one direction of the first direction or the second direction is read to give a second array that is different from a first array expressing an array of all the pixels read from the image pickup device (14); and an image processing section (20) that corrects pixel data of a subject pixel for color mixing correction based on pixel data of a pixel that is the same color as an adjacent pixel in adjacent contact with the subject pixel in the first array, and that is a pixel that has the shortest distance from the adjacent pixel in the first array.
Abstract:
An imaging apparatus body on which a lens unit including an imaging optical system and an identification information storage unit that stores specific identification information can be removably mounted, comprising a shading correction unit that corrects, when the determination unit determines that the correction table corresponding to the identification information of the mounted lens unit is stored in the correction table storage unit, the shading in the set of viewpoint images according to the correction table, corresponding to the identification information of the mounted lens unit, stored in the correction table storage unit.
Abstract:
An imaging apparatus includes: an imager that has a plurality of pixels as defined herein, that includes a plurality of pixel rows including the plurality of pixels arranged in one direction, and that discharges charges of the photoelectric conversion element and the charge holder to a charge discharge region of the readout circuit as defined herein; and an imaging controller that performs a global reset drive, a global shutter drive, a first rolling readout drive, a rolling shutter drive and a second rolling readout drive as defined herein, and the imaging controller performs a first imaging control as defined herein.
Abstract:
Pixels constituting the imaging element include at least four types of the determination pixels for which color filter patterns of adjacent pixels thereof are different from one another. At least one of pixels, which are adjacent to each determination pixel, is a first color pixel that has a color filter with a first color. Further, among the pixels which are adjacent to each determination pixel, a pixel, which is opposed to the first color pixel with the determination pixel interposed therebetween, has a color filter other than the color filter with the first color. Abnormal oblique incident light, which is incident into the imaging element, is detected on the basis of average values of the respective pixel data pieces corresponding to the types of these determination pixels.