Abstract: An electronic device comprises a light-emitting information receiving circuit and a color correction processing circuit. The light-emitting information receiving circuit is configured to be electrically connected to a color correction detection device to receive light-emitting information of an external flash detected by the color correction detection device. The color correction processing circuit is electrically connected to the light-emitting information receiving circuit to perform color correction processing according to the light-emitting information so as to generate color correction result information, the color correction result information being configured to be transmitted to the external flash to correct the light emission of the external flash. Moreover, provided is a color correction system of the external flash.

Abstract: An imaging device capable of reducing a useless region on a substrate is provided. An imaging device including a plurality of substrates to be stacked includes a readout-only circuit disposed on a substrate different from a substrate having a pixel array unit including a plurality of photoelectric conversion elements disposed thereon, and performing an operation of reading out electrical signals obtained through photoelectric conversion in the plurality of photoelectric conversion elements, and a circuit disposed on a substrate different from the substrate having the readout-only circuit disposed thereon and performing an operation other than an operation of the readout-only circuit on the basis of the electrical signals.

Abstract: An image sensor may include an image sensor pixel array. The image sensor pixel array may include active image sensor pixels that generate image data based on incident light and reference pixels that are optically black for generating reference data for noise compensation. Sets of reference pixels in the same row may be coupled to respective shared readout paths in a source follower binning configuration. The shared readout path may be could to downstream readout circuits. The use of shared readout paths for the reference pixels can reduce the number of reference pixel readout paths. If desired, pixel circuitry may be implemented on a first die, while readout circuitry and at least a portion of the reference pixel readout paths may be implemented on a second die mounted to the first die.

Abstract: Embodiments of this application provide a pixel circuit, an image sensor, a camera module, and an electronic device, and belong to the field of image processing technologies. The pixel circuit includes: a photoelectric conversion device, a charge memory, a first transmission transistor, a second transmission transistor, and an exposure control signal memory.

Abstract: Even in a case where the amount of incident light is small, a high-Quality captured image can be obtained. An electronic device includes: a display unit; a first imaging unit that is disposed on a side opposite to a display surface of the display unit and is capable of capturing an image of light in an infrared light wavelength band that has passed through the display unit; a second imaging unit that is disposed on a side opposite to the display surface of the display unit and is capable of capturing as image of light in a visible light wavelength band that has passed through the display unit; and a correction unit that corrects image data imaged by the second imaging unit on the basis of image data imaged by the first imaging unit.

Abstract: An imaging apparatus includes: an imaging unit that is capable of performing imaging and recording; a first operating part; a second operating part; a mode setting unit; a storage unit that stores a still picture set value for imaging and recording of a still picture and a motion picture set value for imaging and recording of a motion picture; and a control unit as defined herein.

Abstract: An image controller, an image processing system, and an image correcting method are provided. A first controller obtains a first image from an image capturing apparatus. The first controller converts the first image into a second image according to a converting operation. The converting operation includes deformation correction, and the deformation correction is used to correct deformation of one or more target objects in the first image. A second controller detects the target object in the second image to generate a detected result. The first controller corrects the converting operation according to the detected result. A visual experience may thus be improved in this way.

Abstract: Systems and techniques are described for large field of view imaging. A device's first image sensor captures a first image based on first light from a scene redirected by a light redirection element (e.g., a first prism and/or first reflective surface), and the device's second image sensor captures a second image based on second light from the scene redirected by the light redirection element (e.g., a second prism and/or second reflective surface). The device can modify the first image and/or second image using perspective distortion correction and/or to align one or more properties of two respective depictions of a shared portion of a scene in the two images. The one or more properties can include brightness, contrast, positioning, sharpness, tint, hue, and/or saturation. The device can generate a combined image with a large field of view and smooth transitions by combining the first image and the second image.

Abstract: A method and a system for imaging a dynamic scene, by time-spectrum mapping when a single chirped pulse probes the dynamic scene, storing temporal information at different wavelengths, spectral shearing, spatial encoding and reverse spectral shearing; spatiotemporal integration; and image reconstruction from a resulting captured snapshot, using a laser source configured to emit a linearly chirped laser probe pulse; an imaging unit; a shearing and reversing shearing unit; an encoder; a detector; and a computer; wherein the imaging unit is configured to record the linearly chirped laser probe pulse transmitted by the dynamic scene in a snapshot; the shearing and reversing shearing unit is configured to spectrally shears the linearly chirped laser pulses received from the imaging unit to the encoder, the detector records a compressed snapshot of a temporal information of the dynamic scene read out by the probe pulse; and the computer processes the snapshot and yields a(x,y,t) datacube of the dynamic scene.

Abstract: A selection method includes a first imaging step of imaging a subject included in a plurality of candidate regions including a first region and a plurality of second regions, a first calculation step of calculating a first distance, which is a distance of a first subject in the first region, and a plurality of second distances, which are distances of a plurality of second subjects in the plurality of second regions, a first specifying step of specifying a first specific region, which corresponds to the second distance satisfying a first condition, from among the plurality of second regions, and a first selection step of selecting a first in-focus subject, which is to be focused, from among the first subject and the second subject in the first specific region based on a first ratio which is a ratio of the first specific region to the plurality of second regions.

Abstract: Disclosed herein are improvements to pixel pattern conversion, upsampling, and IR decontamination processes. An example includes an image processing pipeline comprising an upstream component, a pattern conversion component downstream with respect to the upstream component in the image processing pipeline, and a downstream component relative to the pattern conversion component. The pattern conversion component is configured to obtain RGB-IR pixel data produced by the upstream component of the image processing pipeline and convert the RGB-IR pixel data into RGB pixel data and IR pixel data using a conversion engine. The conversion engine is configured to demosaic the RGB-IR pixel into the RGB pixel data and the IR pixel data, remosaic the RGB pixel data into an RGB pattern and the IR pixel data into an IR pattern and remove IR contamination from the RGB pixel data of the RGB pattern for use by the downstream component.

Abstract: In one example, an imaging apparatus includes an exposure controller that performs exposure control on the basis of information of a region of interest detected from a captured image by a region-of-interest detector. The exposure controller performs different exposure control for different cases, such as whether the region of interest is detected from the captured image. It obtains an exposure correction value on the basis of the region-of-interest exposure target value before a time of region-of-interest lost, and then performs exposure control with the exposure control value obtained by correcting the set region exposure target value with the exposure correction value, in a predetermined period in which the region of interest is not detected continuously from the time of the region-of-interest lost in which the region of interest is not detected from the captured image.

Abstract: An information processing device includes: a determination unit that determines retrieval information used to retrieve at least one photographing recipe including information on photographing; an acquisition unit that acquires relative setting values representing relative values of photographing setting values, corresponding to one of the at least one photographing recipe retrieved on a basis of the retrieval information; and a setting unit that sets a photographing device to perform photographing on a basis of the relative setting values.

Abstract: An imaging apparatus includes: an image sensor that captures a subject image to generate image data; a depth measurer that acquires depth information indicating a depth to a subject in an image indicated by the image data; a detector that acquires subject detection information on a region where the subject is located in the image; and a recognizer that recognizes a subject region having a shape along the subject in the image, based on the depth information and the subject detection information.

Abstract: An imaging device capable of producing images or data with relatively high spectral diversity, allowing for creation of information-rich feature vectors, is provided. Among other things, such information-rich feature vectors may be applied to a range of artificial intelligence and machine learning applications. The imaging device may include a substrate having a baseline spectral responsivity function, multiple pixels forming a cell fabricated on the substrate, and spectral filters each configured to filter light based on a transmission function corresponding to a substantially broad portion of the baseline spectral responsivity function. The spectral filters may be notch filters. Each of the multiple pixels in the cell may be configured to receive light through each of the spectral filters. The transmission function of each of the spectral filters may be substantially different for each of at least a majority of the multiple pixels in the cell.

Abstract: An apparatus according to the present invention includes a detection unit configured to detect an event based on a signal indicating a location of a pixel where a luminance change occurs and time when the luminance change occurs, and a display control unit configured to display an image indicating the pixel where the luminance change occurs based on the signal. In a case where the event is not detected, the image includes additional information indicating the event previously detected.

Abstract: An electronic device includes a housing including a front cover opposite a back cover; a display viewable through the front cover; a light-bending mirror positioned between the front cover and the back cover and receiving light through one of the front cover or the back cover, the light-bending mirror redirecting received light along a light path parallel to the front cover and the back cover; a dichroic cube prism positioned in the light path, the dichroic cube prism receiving light through a first face of the dichroic cube prism, redirecting a visible light portion of the received light through a second face of the dichroic cube prism, and redirecting an infrared (IR) portion of the received light through a third face of the dichroic cube prism; a visible light image sensor positioned adjacent the second face; and an IR light image sensor positioned adjacent the third face.

Abstract: A light source module includes an array of illumination elements and an optional projecting lens. The light source module is configured to receive or generate a control signal for adjusting different ones of the illumination elements to control a light field emitted from the light source module. In some embodiments, the light source module is also configured to adjust the projecting lens responsive to objects in an illuminated scene and a field of view of an imaging device. A controller for a light source module may determine a light field pattern based on various parameters including a field of view of an imaging device, an illumination sensitivity model of the imaging device, depth, ambient illumination and reflectivity of objects, configured illumination priorities including ambient preservation, background illumination and direct/indirect lighting balance, and so forth.

Abstract: An image capture device is disclosed that includes: a body; first and second image capture devices supported within the body so as to define respective, overlapping first and second fields-of-view; and a thermal spreader. The first image capture device includes a first integrated sensor-lens assembly (ISLA) with a first image sensor and a first lens, and the second image capture device includes a second ISLA with a second image sensor and a second lens. The first lens faces in a first direction, and is positioned to receive and direct light onto the first image sensor, and the second lens faces in a second direction, and is positioned to receive and direct light onto the second image sensor, wherein the second direction is generally opposite to the first direction. The thermal spreader extends between, and is connected to, the first and second ISLAs, and is configured to transfer heat therebetween.

Abstract: A color filter structure includes multiple color filter groups. Each color filter group includes multiple color filters. For each color filter group, the multiple color filters transmit light of preset wavelength bands, and each color filter corresponding to a respective preset wavelength band. At least two of the preset wavelength bands correspond to a common color channel.