Abstract: An image sensor includes a unit pixel that includes a photoelectric converter configured to accumulate electric charges generated based on incident light, and an electric charger configured to store the electric charges transferred from the photoelectric converter, and a corrector configured to correct a signal corresponding to the electric charges output from the electric charger based on a transfer condition when the electric charges are transferred from the photoelectric converter to the electric charger.

Abstract: An image sensor includes a pixel portion in which a plurality of unit pixels each having one micro lens and a plurality of photoelectric conversion portions are arrayed in a matrix, a signal readout portion that reads out signals accumulated in the photoelectric conversion portions and converts the read signals to digital signals, a signal processor that processes signals read out by the signal readout portion and has an image capture signal processor that performs signal processing for generating a captured image on signals read out by the signal readout portion and a focus detection signal processor that performs signal processing for focus detection on signals read out by the signal readout portion, and an output portion that outputs signals processed by the signal processor.

Abstract: An image sensor comprising: a pixel portion that outputs a pixel signal; a setting unit that sets a reference voltage in accordance with a shooting condition; a comparator that compares the reference voltage or one of a plurality of comparison voltages having different slopes which change with time and the pixel signal; a selector that selects one of the plurality of comparison voltages according to a result of the comparison between the reference voltage and the pixel signal by the comparator; and a counter that counts a number of clocks until the selected comparison voltage and the pixel signal become equal while the comparator compares the comparison voltage selected by the selector and the pixel signal.

Abstract: An image capturing apparatus includes a plurality of unit pixels that each have a plurality of photoelectric conversion portions, and are arranged in a matrix; a plurality of column output lines arranged for each column of the unit pixels; and a switching unit configured to switch between a first read out mode where signals that have been accumulated in the plurality of photoelectric conversion portions of a unit pixel are read out from respectively different column output lines, and a second read out mode where signals that have been accumulated in the plurality of photoelectric conversion portions of a unit pixel are combined and then read out from a single column output line.

Abstract: An image sensing device includes: a plurality of pixels; and an AD converter that compares a pixel signal output from the plurality of pixels with a slope voltage having a temporally variable potential so as to perform AD conversion on the pixel signal, and switching is performed between a first mode and a second mode according to an imaging condition, the first mode being a mode in which the pixel signal is AD converted by selecting one from among a plurality of slope voltages and comparing the pixel signal with the selected slope voltage, and the second mode being a mode in which the pixel signal is AD converted by comparing the pixel signal with a predetermined slope voltage.

Abstract: An image capturing apparatus comprises a unit pixel including a plurality of light receiving elements, a plurality of column output lines provided, for each column, at a number greater than or equal to at least a number of the light receiving elements of each unit pixel, and a switching unit configured to switch between a first readout mode for reading out signals from the plurality of light receiving elements via respectively different column output lines and a second readout mode for reading out signals from the plurality of light receiving elements via the same column output line for each unit pixel.

Abstract: An image sensor includes an image sensing plane in which a plurality of pixels are two-dimensionally arranged and at least a portion of a region thereof has a curved shape, and a plurality of well contacts that fix a well potential and are connected to a portion of pixels from among the plurality of pixels. The well contacts are arranged such that an arrangement density thereof in the image sensing plane is different in each region according to the curved shape of the image sensing plane.

Abstract: A control apparatus (106) includes an acquirer (106a) which acquires a first imaging signal that is read in a first mode from a first pixel area of an image sensor and a second imaging signal that is read in a second mode from a second pixel area of the image sensor, the image sensor including a plurality of photoelectric converters corresponding to a single microlens, and an image processor (106b) which performs noise reduction processing on the first and second imaging signals, the first mode is a mode in which pixel signals of photoelectric converters are added to each other to he read from the image sensor, and the second mode is a mode in which a pixel signal of at least one of the photoelectric converters is read independently as a predetermined signal.

Abstract: An image capturing apparatus including an image sensor including a pixel region in which a plurality of pixels are arranged in a row direction and a column direction, and readout unit for reading out pixel signals from the plurality of pixels, setting unit for setting an imaging condition and control unit for selecting one of a readout mode between thinning readout mode in which the pixel signals are read out from the plurality of pixels while thinning out the plurality of pixels and a mixing readout mode in which the pixel signals of the plurality of pixels are mixed and readout according to the imaging condition set by the setting unit.

Abstract: An image sensor includes an image sensing plane in which a plurality of pixels are two-dimensionally arranged and at least a portion of a region thereof has a curved shape, and a plurality of well contacts that fix a well potential and are connected to a portion of pixels from among the plurality of pixels. The well contacts are arranged such that an arrangement density thereof in the image sensing plane is different in each region according to the curved shape of the image sensing plane.

Abstract: An imaging apparatus, which includes an imaging device having a plurality of image sensors, is configured to receive light incident on the imaging device, obtain an output voltage based the received light, and generate an image based on the output voltage. The plurality of image sensors have an aperture pixel region that accumulates and outputs the charges generated based on the incident light and a shielded optical black region. The imaging device performs a skipping operation for arbitrarily and non-sequentially selecting a read row. By performing an offset correction of a step amount produced during the non-sequential reading due to the skip operation, the step resulting from the skip reading can be corrected.

Abstract: An image capturing apparatus comprises a unit pixel including a plurality of light receiving elements, a plurality of column output lines provided, for each column, at a number greater than or equal to at least a number of the light receiving elements of each unit pixel, and a switching unit configured to switch between a first readout mode for reading out signals from the plurality of light receiving elements via respectively different column output lines and a second readout mode for reading out signals from the plurality of light receiving elements via the same column output line for each unit pixel.

Abstract: An image capturing apparatus includes a plurality of unit pixels that each have a plurality of photoelectric conversion portions, and are arranged in a matrix; a plurality of column output lines arranged for each column of the unit pixels; and a switching unit configured to switch between a first read out mode where signals that have been accumulated in the plurality of photoelectric conversion portions of a unit pixel are read out from respectively different column output lines, and a second read out mode where signals that have been accumulated in the plurality of photoelectric conversion portions of a unit pixel are combined and then read out from a single column output line.

Abstract: An image capturing apparatus including an image sensor including a pixel region in which a plurality of pixels are arranged in a row direction and a column direction, and readout unit for reading out pixel signals from the plurality of pixels, setting unit for setting an imaging condition and control unit for selecting one of a readout mode between thinning readout mode in which the pixel signals are read out from the plurality of pixels while thinning out the plurality of pixels and a mixing readout mode in which the pixel signals of the plurality of pixels are mixed and readout according to the imaging condition set by the setting unit.

Abstract: An image pickup apparatus that is capable of taking a distortion-free moving image without enlarging circuit scale. An image sensor has pixels each of which comprises a photoelectric conversion section that generates an electric charge corresponding to the incident light, a charge storage section that stores the electric charge, and an output section that outputs a voltage corresponding to the electric charge. The pixels include a first type pixel with a charge retention section that temporally holds the electric charge before transferring to the charge storage section, and a second type pixel without the charge retention section. A setting unit sets up a mode. A control unit controls to generate an image corresponding the output voltage from the first type pixel in a moving image pickup mode, and to generate an image corresponding to the output voltages from the first and second type pixels in a still image pickup mode.

Abstract: An image capturing apparatus includes an image sensor having an effective pixel area composed of effective pixels that photoelectrically convert an object image and a reference pixel area composed of reference pixels that output pixel signals to be a reference; a first calculation unit that calculates a standard deviation of the pixel signals output from the reference pixel area; a second calculation unit that calculates an integrated value of the pixel signals output from the reference pixel area; a third calculation unit that calculates a correction value for correcting pixel signals output from the effective pixel area, with use of the integrated value; a correction unit that corrects the pixel signals output from the effective pixel area, based on the correction value; and a determination unit that determines whether correction is to be performed by the correction unit, according to the standard deviation.

Abstract: Provided is an imaging apparatus including an image sensor. In the image sensor that includes a valid pixel area in which a plurality of valid pixels each having a photoelectric conversion unit is disposed, a first reference pixel area in which a plurality of first reference pixels each having a light-shielded photoelectric conversion unit is disposed, and a second reference pixel area in which a plurality of second reference pixels each having no photoelectric conversion unit is disposed, when outputs of the plurality of valid pixels are added to be read, outputs of the plurality of first reference pixels are added by the addition unit to be read, and outputs of the plurality of second reference pixels are read without being added by the addition unit. Thus, noises can be effectively corrected even in the small number of invalid pixels areas.

Abstract: Provided is an imaging apparatus including an image sensor. In the image sensor that includes a valid pixel area in which a plurality of valid pixels each having a photoelectric conversion unit is disposed, a first reference pixel area in which a plurality of first reference pixels each having a light-shielded photoelectric conversion unit is disposed, and a second reference pixel area in which a plurality of second reference pixels each having no photoelectric conversion unit is disposed, when outputs of the plurality of valid pixels are added to be read, outputs of the plurality of first reference pixels are added by the addition unit to be read, and outputs of the plurality of second reference pixels are read without being added by the addition unit. Thus, noises can be effectively corrected even in the small number of invalid pixels areas.

Abstract: An image pickup apparatus that is capable of taking a distortion-free moving image without enlarging circuit scale. An image sensor has pixels each of which comprises a photoelectric conversion section that generates an electric charge corresponding to the incident light, a charge storage section that stores the electric charge, and an output section that outputs a voltage corresponding to the electric charge. The pixels include a first type pixel with a charge retention section that temporally holds the electric charge before transferring to the charge storage section, and a second type pixel without the charge retention section. A setting unit sets up a mode. A control unit controls to generate an image corresponding the output voltage from the first type pixel in a moving image pickup mode, and to generate an image corresponding to the output voltages from the first and second type pixels in a still image pickup mode.

Abstract: An image capturing apparatus includes an image sensor having an effective pixel area composed of effective pixels that photoelectrically convert an object image and a reference pixel area composed of reference pixels that output pixel signals to be a reference; a first calculation unit that calculates a standard deviation of the pixel signals output from the reference pixel area; a second calculation unit that calculates an integrated value of the pixel signals output from the reference pixel area; a third calculation unit that calculates a correction value for correcting pixel signals output from the effective pixel area, with use of the integrated value; a correction unit that corrects the pixel signals output from the effective pixel area, based on the correction value; and a determination unit that determines whether correction is to be performed by the correction unit, according to the standard deviation.