Abstract: Diagonal beam joining hardware according to one or more embodiments includes: a beam splicing part; an extending part protruding from an appropriate intermediate part of the beam splicing part; and a beam receiving hardware mounting part bending and extending from an end edge of the extending part to form a predetermined plane angle with respect to the beam splicing part. The beam splicing part is attached and fastened to a side face of a continued beam by through bolts and penetrating the beam in the beam width direction. Beam receiving hardware is fitted in a slit formed in an end part of the diagonal beam. A contacting part of the beam receiving hardware is superimposed on the beam receiving hardware mounting part of the diagonal beam joining hardware and fastened by bolt/nut fastening.

Abstract: A method and an apparatus for feeding electronic components are capable of increasing a rate of filling accommodation holes with electronic components. An accommodation plate including accommodation holes, respective openings of which are distributed over a main surface of the accommodation plate, is prepared, and electronic components are loaded onto the main surface of the accommodation plate. A horizontal vibration in an X-axis direction and/or a Y-axis direction and a vertical vibration in a Z-axis direction are applied to the accommodation plate with the main surface of the accommodation plate level. The horizontal and vertical vibrations have an equal number of vibrations and a prescribed phase difference therebetween. The accommodation plate is vibrated so that each of the electronic components is fed into one of the accommodation holes while moving over the main surface of the accommodation plate.

Abstract: A method and an apparatus for feeding electronic components are capable of increasing a rate of filling accommodation holes with electronic components. An accommodation plate including accommodation holes, respective openings of which are distributed over a main surface of the accommodation plate, is prepared, and electronic components are loaded onto the main surface of the accommodation plate. A horizontal vibration in an X-axis direction and/or a Y-axis direction and a vertical vibration in a Z-axis direction are applied to the accommodation plate with the main surface of the accommodation plate level. The horizontal and vertical vibrations have an equal number of vibrations and a prescribed phase difference therebetween. The accommodation plate is vibrated so that each of the electronic components is fed into one of the accommodation holes while moving over the main surface of the accommodation plate.

Abstract: A method and an apparatus for feeding electronic components are capable of increasing a rate of filling accommodation holes with electronic components. An accommodation plate including accommodation holes, respective openings of which are distributed over a main surface of the accommodation plate, is prepared, and electronic components are loaded onto the main surface of the accommodation plate. A horizontal vibration in an X-axis direction and/or a Y-axis direction and a vertical vibration in a Z-axis direction are applied to the accommodation plate with the main surface of the accommodation plate level. The horizontal and vertical vibrations have an equal number of vibrations and a prescribed phase difference therebetween. The accommodation plate is vibrated so that each of the electronic components is fed into one of the accommodation holes while moving over the main surface of the accommodation plate.

Abstract: A method and an apparatus for feeding electronic components are capable of increasing a rate of filling accommodation holes with electronic components. An accommodation plate including accommodation holes, respective openings of which are distributed over a main surface of the accommodation plate, is prepared, and electronic components are loaded onto the main surface of the accommodation plate. A horizontal vibration in an X-axis direction and/or a Y-axis direction and a vertical vibration in a Z-axis direction are applied to the accommodation plate with the main surface of the accommodation plate level. The horizontal and vertical vibrations have an equal number of vibrations and a prescribed phase difference therebetween. The accommodation plate is vibrated so that each of the electronic components is fed into one of the accommodation holes while moving over the main surface of the accommodation plate.

Abstract: There is provided an image processing apparatus including an image information combining unit that performs a pixel value combining process on a long-time exposure pixel and a short-time exposure pixel. The pixel information combining unit calculates a plurality of blending ratios based on pixel values of a plurality of pixels of different periods of exposure time, determines an applied blending ratio, which is applied to a blending process for the long-time exposure pixel and the short-time exposure pixel, based on the plurality of blending ratios, and determines pixel values of an output image or an intermediate image which is applied to produce the output image, by the blending process for the long-time exposure pixel and the short-time exposure pixel to which the applied blending ratio is applied.

Abstract: Provided is an image processing device including a data conversion processing unit that receives an input of an RGBW array image and generates an RGB array image as an output image. The data conversion processing unit includes a pixel interpolation unit that calculates interpolated pixel values corresponding to an array of the RGB array image by performing a pixel interpolation process on the RGBW array image, a purple fringe detection unit that detects whether each pixel is a purple fringe pixel by analyzing the RGBW array image, a corrected value calculation unit that calculates corrected pixel values by correcting pixel values of the purple fringe pixels, and a blend processing unit that calculates constituent pixel values RGB of the output image by performing a blend process of blending the interpolated pixel values calculated by the pixel interpolation unit with the corrected pixel values calculated by the corrected value calculation unit.

Abstract: An image processing apparatus includes a superimposition processing unit that performs a blending process for a plurality of continuously captured images, wherein the superimposition processing unit is configured to selectively input luminance signal information of a RAW image or a full color image as a processing target image and perform a superimposition process, and performs a process for sequentially updating data that is stored in a memory for storing two image frames so as to enable superimposition of any desired number of images.

Abstract: An image processing apparatus includes a superimposition processing unit that performs a blending process for a plurality of continuously captured images, wherein the superimposition processing unit is configured to selectively input luminance signal information of a RAW image or a full color image as a processing target image and perform a superimposition process, and performs a process for sequentially updating data that is stored in a memory for storing two image frames so as to enable superimposition of any desired number of images.

Abstract: Provided is an image processing device including a data conversion processing unit that receives an input of an RGBW array image and generates an RGB array image as an output image. The data conversion processing unit includes a pixel interpolation unit that calculates interpolated pixel values corresponding to an array of the RGB array image by performing a pixel interpolation process on the RGBW array image, a purple fringe detection unit that detects whether each pixel is a purple fringe pixel by analyzing the RGBW array image, a corrected value calculation unit that calculates corrected pixel values by correcting pixel values of the purple fringe pixels, and a blend processing unit that calculates constituent pixel values RGB of the output image by performing a blend process of blending the interpolated pixel values calculated by the pixel interpolation unit with the corrected pixel values calculated by the corrected value calculation unit.

Abstract: Provided is an image processing apparatus including: an image combination unit which generates combined images by combining photographed images having different exposure times; and a motion area detection unit which performs a comparison process on a plurality of the combined images generated by the image combination unit to acquire a pixel value difference and which performs a motion area detection process of comparing the pixel value difference with a predetermined threshold value and determining a pixel area, of which the pixel value difference is equal to or larger than the threshold value, to be a motion area where motion of a subject is estimated to have occurred.

Abstract: A clipping processing portion is provided with: a subject detection portion that detects a main subject and a sub-subject from an input image; a degree-of-relationship calculation portion that calculates the degree of relationship between the main subject and the sub-subject; a clip region setting portion that sets a clip region based on the positions of the main subject and the sub-subject in the input image and the degree of relationship; a clipping portion that clips the clip region from the input image. The clip region setting portion sets the clip region so as to include the main subject and the sub-subject having the high degree of relationship thereof.

Abstract: There is provided an image processing apparatus including an image information combining unit that performs a pixel value combining process on a long-time exposure pixel and a short-time exposure pixel. The pixel information combining unit calculates a plurality of blending ratios based on pixel values of a plurality of pixels of different periods of exposure time, determines an applied blending ratio, which is applied to a blending process for the long-time exposure pixel and the short-time exposure pixel, based on the plurality of blending ratios, and determines pixel values of an output image or an intermediate image which is applied to produce the output image, by the blending process for the long-time exposure pixel and the short-time exposure pixel to which the applied blending ratio is applied.

Abstract: An image processing device includes an image correction unit which receives a synthesized image and pseudo color pixel information indicating a pseudo color pixel position included in the synthesized image and executes pixel value correction. The image correction unit selects non-pseudo color pixels as reference pixels from a reference region set in a surrounding region of the pixel to be corrected, sets a similarity weight coefficient in which a large weight is set as a pixel value of the reference pixel that is close to a pixel value of the pixel to be corrected and a pixel position weight coefficient in which a large weight is set as the pixel value of the reference pixel that is near a pixel position of the pixel to be corrected, with respect to the reference pixels, and determines a correction pixel value of the pixel to be corrected by a weighted summation process.

Abstract: An image-taking apparatus generates an output image from a photographed image obtained by photographing and displays this output image on a display screen of a display section. The image-taking apparatus includes a recognition processing section for recognizing a specific subject (facial region of a person, or a facial component such as eyes) included in the photographed image. Referring to results of this recognition, the image-taking apparatus evaluates the dimension of the specific subject in each photographed image. If the dimension evaluated is relatively large, a relatively small magnification ratio to be employed upon the generation of the output image from the photographed image is provided. If the dimension evaluated is relatively small, a relatively large magnification ratio to be employed upon the generation of the output image from the photographed image is provided. As a result, the dimension of the specific subject in the output image is kept substantially constant.

Abstract: An image processing device generates a high-resolution image from a plurality of low-resolution images, in which the high-resolution image has a resolution higher than a resolution of the low-resolution images. The image processing device includes a reference image setting portion for selecting a reference image from the plurality of low-resolution images based on image information of the plurality of low-resolution images. The image processing device generates the high-resolution image by performing a resolution increasing process on the plurality of low-resolution images for increasing a resolution with respect to the reference image.

Abstract: A super-resolution processing portion has a high-resolution image generation portion that fuses a plurality of first input images together to generate a high-resolution image. The first input images are shot at a shutter speed equal to or faster than the super-resolution limit shutter speed, which is the lower-limit shutter speed that enables super-resolution processing to make the resolution of the output image equal to or higher than that of the input images. According to the amount of exposure, one of the following different methods for super-resolution processing is selected: a first method that yields as the output image the high-resolution image; a second method that yields as the output image a weighted added image resulting from weighted addition of the high-resolution image and an image based on an averaged image; and a third method that yields as the output image a weighted added image resulting from weighted addition of the high-resolution image and an image based on a second input image.

Abstract: An image processing apparatus includes a superimposition processing unit which performs a blend process on a plurality of images which are continuously photographed. The superimposition processing unit includes a moving subject detection unit, a blend processing unit, and a noise reduction processing unit. The moving subject detection unit detects the moving subject region of an image, and generates moving subject information in units of an image region. The blend processing unit generates a superimposition image by performing a blend process on the plurality of images using a high blend ratio in a stationary subject region and using a low blend ratio in the moving subject region based on the moving subject information. The noise reduction processing unit performs a stronger pixel value smoothing process on the moving subject region of the superimposition image based on the moving subject information.

Abstract: A representative-value calculator calculates a representative value of signal values of pixels included in each of divided regions of a neighboring region of a pixel of interest. The divided regions are obtained by dividing the neighboring region into the predetermined number of divisions. The number of divisions is determined based on a frequency band in an input image signal. A difference-absolute-value calculator calculates a difference absolute value between a signal value of the pixel of interest and each of the representative values of the respective divided regions. A weight calculator calculates a weight for each of the representative values of the respective divided regions according to the difference absolute value. A normalization processor normalizes the sum of products of the representative values of the respective divided regions and the weights for the representative values of the respective divided region.

Abstract: An image processing apparatus includes a superimposition processing unit that performs a blending process for a plurality of continuously captured images, wherein the superimposition processing unit is configured to selectively input luminance signal information of a RAW image or a full color image as a processing target image and perform a superimposition process, and performs a process for sequentially updating data that is stored in a memory for storing two image frames so as to enable superimposition of any desired number of images.