Abstract: An image capturing apparatus includes analog amplification unit for amplifying one pixel signal by a plurality of types of analog gain, digital amplification unit for amplifying the one pixel signal by a plurality of types of digital gain, and control unit for performing control so as to, in a case where a target gain is obtainable with only analog gain, perform first control for amplifying the pixel signal by a first gain and a second gain with the analog amplification unit, and, in a case where the target gain is not obtainable with only analog gain, perform second control for amplifying the pixel signal by the first gain and the second gain, using the analog amplification unit and the digital amplification unit.

Abstract: An image capturing apparatus includes a pixel portion in which a plurality of pixels are arranged, first acquisition unit for amplifying first image signals obtained by exposing the pixel portion, with multiple different gains, and acquiring multiple images respectively amplified with the multiple different gains, second acquisition unit for acquiring images for correction that correspond to the multiple different gains, and correction unit for correcting the multiple images using the images for correction that correspond to the gains with which the multiple images are respectively amplified.

Abstract: The photosensitive resin composition of the present invention includes a polymer A having a structural unit represented by General Formula (a) and a polymer B including a polyimide having a group b represented by General Formula (b).

Abstract: A head mounted display according to the present invention is a head mounted display of a video see-through type, and includes: an image sensor configured to be able to execute, in parallel, capturing of a first image representing a real space, and capturing of a second image representing the real space; a display configured to display the first image; a detection unit configured to detect a predetermined real object from the second image; and a processor configured to perform predetermined processing based on a result of the detection of the predetermined real object.

Abstract: An image capturing apparatus includes a plurality of pixels, a first amplifier capable of amplifying a signal of each pixel using a plurality of different gains, a second amplifier capable of amplifying the signal of each pixel using a plurality of different gains, with a method different from a method used by the first amplifier; and a control unit that performs control so as to execute one of first processing and second processing based on a shooting mode of the image capturing apparatus, a setting at the time of shooting, or a state of a subject, the first processing causing the first amplifier to amplify the signal of each pixel using a plurality of different gains, the second processing causing the second amplifier to amplify the signal of each pixel using a plurality of different gains.

Abstract: In an image pickup element, a plurality of unit pixels constituted by one micro lens and a photodiode arranged underneath the micro lens are arranged in rows and columns. The image pickup element includes first unit pixels in which a plurality of photodiodes are arranged underneath one micro lens, second unit pixels different from the first unit pixels, m first output lines per column from which signals of the first unit pixels are output, and n second output lines per column from which signals of the second unit pixels are output.

Abstract: In an image pickup element, a plurality of unit pixels constituted by one micro lens and a photodiode arranged underneath the micro lens are arranged in rows and columns. The image pickup element includes first unit pixels in which a plurality of photodiodes are arranged underneath one micro lens, second unit pixels different from the first unit pixels, m first output lines per column from which signals of the first unit pixels are output, and n second output lines per column from which signals of the second unit pixels are output.

Abstract: An image pickup apparatus 100 includes an image pickup element 101 including a plurality of image pickup pixels that perform a photoelectric conversion for an image formed by a light beam from an image pickup optical system and a plurality of focus detection pixels that perform a photoelectric conversion for an image formed by a divided light beam of the light beam from the image pickup optical system, and a DSP 103 configured to perform a shading correction for a pixel signal from the image pickup element 101, the image pickup element 101 generates a first pixel signal by adding signals from the plurality of image pickup pixels, and generates a second pixel signal without adding a signal from the focus detection pixel, and the DSP 103 performs the shading correction for the first pixel signal and the second pixel signal using correction data different from each other.

Abstract: Left- and right-eye captured images are output upon reception of light beams having passed through one imaging optical system, and the difference, between the left- and right-eye captured images, of each of subjects included in the left- and right-eye captured images is detected. An extraction image extracted from a region which includes a main subject and has a predetermined size is output for each of the left- and right-eye captured images. At this time, the region is set so that the difference, between the left- and right-eye captured images, of a subject which is different from the main subject and included in both the extraction images has a predetermined value.

Abstract: An image pickup apparatus (100) that generates a three-dimensional image, includes an image pickup element (114) including a micro lens (2) and a pixel unit cell (1) including a plurality of pixels (1a, 1b) arranged to receive light from the microlens (2), wherein the image pickup element is configured to output separated first image and second image signals for respective pixels of the pixel unit cell, a parallax detector (123) configured to calculate a parallax comprising an image shift amount between the first image signal and the second image signal, and an image correcting portion (120) configured to perform a correction to change the parallax, wherein the amount of change of the parallax depends on a change of the aperture stop (111).

Abstract: An image pickup apparatus 100 includes an image pickup element 101 including a plurality of image pickup pixels that perform a photoelectric conversion for an image formed by a light beam from an image pickup optical system and a plurality of focus detection pixels that perform a photoelectric conversion for an image formed by a divided light beam of the light beam from the image pickup optical system, and a DSP 103 configured to perform a shading correction for a pixel signal from the image pickup element 101, the image pickup element 101 generates a first pixel signal by adding signals from the plurality of image pickup pixels, and generates a second pixel signal without adding a signal from the focus detection pixel, and the DSP 103 performs the shading correction for the first pixel signal and the second pixel signal using correction data different from each other.

Abstract: An image pickup apparatus 100 includes an image pickup element 101 including a plurality of image pickup pixels that perform a photoelectric conversion for an image formed by a light beam from an image pickup optical system and a plurality of focus detection pixels that perform a photoelectric conversion for an image formed by a divided light beam of the light beam from the image pickup optical system, and a DSP 103 configured to perform a shading correction for a pixel signal from the image pickup element 101, the image pickup element 101 generates a first pixel signal by adding signals from the plurality of image pickup pixels, and generates a second pixel signal without adding a signal from the focus detection pixel, and the DSP 103 performs the shading correction for the first pixel signal and the second pixel signal using correction data different from each other.

Abstract: An image pickup apparatus capable of reducing the influence of dark current noise to thereby obtain excellent image quality, even when the dynamic range is expanded under a photographing condition. In an image pickup element of a CMOS image sensor of the apparatus, a photo diode (PD) generates and accumulates electric charge according to an optical input, and a floating diffusion portion (FD) accumulates the electric charges. A charge holding portion (MEM) is disposed between PD and FD. A first transfer transistor selectively separates and connect between PD and MEM, and a second transfer transistor selectively separates and connects between MEM and FD. A system control circuit sets an operation mode to either a first operation mode in which PD and MEM are separated or a second operation mode according to photographing conditions for shooting an object in which PD and MEM are connected.

Abstract: Left- and right-eye captured images are output upon reception of light beams having passed through one imaging optical system, and the difference, between the left- and right-eye captured images, of each of subjects included in the left- and right-eye captured images is detected. An extraction image extracted from a region which includes a main subject and has a predetermined size is output for each of the left- and right-eye captured images. At this time, the region is set so that the difference, between the left- and right-eye captured images, of a subject which is different from the main subject and included in both the extraction images has a predetermined value.

Abstract: An image pickup apparatus (100) that generates a three-dimensional image, includes an image pickup element (114) including a micro lens (2) and a pixel unit cell (1) including a plurality of pixels (1a, 1b) arranged to receive light from the microlens (2), wherein the image pickup element is configured to output separated first image and second image signals for respective pixels of the pixel unit cell, a parallax detector (123) configured to calculate a parallax comprising an image shift amount between the first image signal and the second image signal, and an image correcting portion (120) configured to perform a correction to change the parallax, wherein the amount of change of the parallax depends on a change of the aperture stop (111).

Abstract: An image processing apparatus for processing image signals output from an image sensor having a plurality of unit cells each including a plurality of photoelectric conversion elements for receiving light passing through different pupil regions and each of which can be read out separately, wherein: a detection unit detects a phase difference between a plurality of images each formed on the basis of image signals of photoelectric conversion elements located in a same position in each of the plurality of unit cells; a determination unit determines a defective photoelectric conversion element; and a correction unit corrects a defective image signal of a defective photoelectric conversion element using an image signal corresponding to the defective image signal and constituting another of the plurality of images that does not include the defective image signal, based on the phase difference detected by the detection unit.

Abstract: An image pickup apparatus 100 includes an image pickup element 101 including a plurality of image pickup pixels that perform a photoelectric conversion for an image formed by a light beam from an image pickup optical system and a plurality of focus detection pixels that perform a photoelectric conversion for an image formed by a divided light beam of the light beam from the image pickup optical system, and a DSP 103 configured to perform a shading correction for a pixel signal from the image pickup element 101, the image pickup element 101 generates a first pixel signal by adding signals from the plurality of image pickup pixels, and generates a second pixel signal without adding a signal from the focus detection pixel, and the DSP 103 performs the shading correction for the first pixel signal and the second pixel signal using correction data different from each other.

Abstract: A crushing device comprises a crushing mechanism for crushing an object, the crushing mechanism performing the crushing operation by a stationary blade and a crushing rotor which is rotationally driven by a crushing motor; a conveying mechanism for pressing and conveying the object to the crushing mechanism by a conveying roller rotationally driven by a conveying motor; a pressing mechanism for pressing the conveying mechanism to the object by an arm cylinder; and a hopper for receiving the object. The drive force of the arm cylinder is controlled according to the drive load of the conveying motor, and the rotational speed of the conveying motor is controlled according to the drive load of the crushing motor.

Abstract: An image pickup apparatus has a pixel array including a plurality of photoelectric conversion elements arranged in column and row directions, a first output unit configured to be driven by a first driving signal and to output first signals fed from at least some of the photoelectric conversion elements in the pixel array, and a second output unit configured to be driven by a second driving signal and to output second signals fed from at least some of the photoelectric conversion elements in the pixel array. The first driving signal and the second driving signal are asynchronous.

Abstract: An image pickup apparatus capable of reducing the influence of dark current noise to thereby obtain excellent image quality, even when the dynamic range is expanded under a photographing condition. In an image pickup element of a CMOS image sensor of the apparatus, a photo diode (PD) generates and accumulates electric charge according to an optical input, and a floating diffusion portion (FD) accumulates the electric charges. A charge holding portion (MEM) is disposed between PD and FD. A first transfer transistor selectively separates and connect between PD and MEM, and a second transfer transistor selectively separates and connects between MEM and FD. A system control circuit sets an operation mode to either a first operation mode in which PD and MEM are separated or a second operation mode according to photographing conditions for shooting an object in which PD and MEM are connected.