An electronic device is provided. The electronic device includes a camera with an image sensor including a plurality of image pixels arranged in a first direction and a second direction orthogonal to the first direction, for converting light incident on a plurality of micro-lenses into an electrical signal, performing a first correlation calculation for phase difference detection in the first direction based on the electrical signal, and outputting image data including a first phase difference correlation calculation value, an ISP configured to perform a second correlation calculation for phase difference detection in the second direction using phase difference information about the image data, and a driver configured to adjust a focus of the camera based on the first phase difference correlation calculation value for the first direction and a second phase difference correlation calculation value for the second direction.

An imaging apparatus includes a storage portion that stores captured image data obtained by imaging a subject by an imaging element and is incorporated in the imaging element, an output portion that is incorporated in the imaging element, and a plurality of signal processing portions that are disposed outside the imaging element, in which the output portion includes a plurality of output lines each disposed in correspondence with each of the plurality of signal processing portions and outputs each of a plurality of pieces of image data into which the captured image data stored in the storage portion is divided, to a corresponding signal processing portion among the plurality of signal processing portions from the plurality of output lines, and any of the plurality of signal processing portions combines the plurality of pieces of image data.

Color filters are used for color images obtained using imaging devices such as conventional image sensors. Imaging elements with color filters are sold, and an appropriate combination of the imaging element and a lens or the like is incorporated in an electronic device. Only providing a color filter to overlap a light-receiving region of an image sensor reduces the amount of light reaching the light-receiving region.

An imaging system of the present invention includes a solid-state imaging element without a color filter, a storage device, and a learning device. As a selection standard for reducing the amount of learning data, in an HSV color space, saturation is used, and selection is performed so that the saturation has optimal distribution. When colorization disclosed in this specification is performed, the colorization and object highlight processing can be performed at the same time.

An image sensor includes a first voltage source that supplies a first voltage and a plurality of pixels supplied with the first voltage. The pixel includes a photoelectric conversion unit that photoelectrically converts incident light, an accumulation unit to which an electric charge resulting from photoelectric conversion by the photoelectric conversion unit is transferred and accumulated, a transfer unit that transfers the electric charge from the photoelectric conversion unit to the accumulation unit; a second voltage source that supplies a second voltage, and a supply unit that supplies the transfer unit with a transfer signal based on either the first voltage supplied by the first voltage source or the second voltage supplied by the second voltage source.

A portable apparatus for analyzing a plant specimen. A housing assembly defines a sensing volume and controls entry of ambient light into the sensing volume when the housing is closed. A specimen support positions a plant specimen within the sensing volume whereby light emitted from at least one light emitter is incident upon the plant specimen. An image sensor senses light from the at least one light emitter that has been incident on the plant specimen. A processor analyzes data obtained from the light sensor to assess one or more properties of the plant specimen. There may be more than one light emitter, e.g., a halogen lamp and LED array, and the apparatus may acquire images under more than one lighting condition. The apparatus may include a mechanism for moving the plant specimen relative to the optical path to take images at multiple regions of interest on the specimen.

The present technology relates to an imaging device of global shutter type, and relates to an imaging device and electronic equipment capable of inhibiting interference between a photoelectric conversion unit and an element that holds charge that has been transferred from the photoelectric conversion unit. An imaging device includes, in a pixel: a photoelectric conversion unit; a charge transfer unit; an electrode that is used to transfer charge from the photoelectric conversion unit to the charge transfer unit; a charge-voltage conversion unit; and a charge drain unit. Here, the charge transfer unit is allowed to transfer charge in a first transfer direction to the charge-voltage conversion unit and a second transfer direction to the charge drain unit. The present technology can be applied to, for example, a CMOS image sensor of global shutter type.

An imaging device 100 includes a pixel array PA. A first period, a third period, and a second period appear in this order in one frame. During the first period, pixel signal readout is performed on at least one first row in the pixel array PA. During the second period, pixel signal readout is performed on at least one second row in the pixel array PA. At least one of the at least one first row or the at least one second row includes two rows in the pixel array PA. During the third period, no pixel signal readout is performed on the rows in the pixel array PA. Each of the first period and the second period is one of the high-sensitivity exposure period and the low-sensitivity exposure period. The third period is the other of the high-sensitivity exposure period and the low-sensitivity exposure period.

An imaging apparatus includes a first photoelectric conversion unit configured to convert light into charge, a second photoelectric conversion unit configured to convert light into charge, and a comparison unit. The comparison unit includes a first transistor and a second transistor. The first transistor receives a signal that is based on the charge converted by the first photoelectric conversion unit. The second transistor receives a signal that is based on the charge converted by the second photoelectric conversion unit.

An imaging element of the present disclosure includes an analog-to-digital converter configured to convert multiple analog pixel signals that are acquired under multiple imaging conditions different from each other and that are output from a pixel, to multiple digital pixel signals, a threshold setting unit configured to set, on an input side of the analog-to-digital converter, a threshold that is randomly varied, a comparison unit configured to use, as a comparison threshold, the threshold set by the threshold setting unit and compare the comparison threshold with one of the multiple analog pixel signals, and a selection unit configured to select and output, on the basis of a result of comparison from the comparison unit, one of the multiple digital pixel signals that are output from the analog-to-digital converter.

Provided is a light receiving element capable of lowering the on-voltage of a transfer transistor and suppressing transfer failures at a low on-voltage. The light receiving element includes a plurality of pixels arranged in a matrix, each of the plurality of pixels including: a photoelectric conversion unit; first and second charge storage units that store charges generated by the photoelectric conversion unit; first and second transfer transistors that transfer the charges from the photoelectric conversion unit to the first and second charge storage units, respectively; first and second amplification transistors that amplify potentials of the first and second charge storage units, respectively; and a connection wiring that electrically connects the first charge storage unit and the first amplification transistor, wherein a first transfer control wiring electrically connected to a gate of the first transfer transistor of each of the pixels in the same row extends in a row direction in a first wiring layer, and the connection wiring extends to the first wiring layer.