Abstract: An imaging device includes an imaging portion that images a subject; a positional information acquisition portion that acquires positional information of an imaging position; a control portion which acquires information on the subject based on the positional information, and displays image data of the subject and the information on the subject on a display portion; and a hold control portion that outputs a hold control signal, which holds the image data of the subject and the information on the subject, to the control portion.

Abstract: A semiconductor memory device includes a pixel array having pixels, a logic circuit configured to process a signal output by the pixels to generate image data, and sensor pads connected to the logic circuit, where the sensor pads include a first ground sensor pad, a second ground sensor pad, signal sensor pads disposed between the first ground sensor pad and the second ground sensor pad and configured to output the image data, and dummy sensor pads disposed between the first ground sensor pad and the second ground sensor pad and configured not to output the image data, and at least one of the dummy sensor pads is disposed between the signal sensor pads.

Abstract: An electronic device and control method thereof capable of utilizing a display as illumination light for a camera that is being used to capture images is provided. The electronic device includes a foldable display; a camera; a processor; and a memory operatively connected to the processor, wherein the memory may store instructions that cause, when executed, the processor to detect a user input for activating the camera; identify a state of the foldable display based on the user input; display a live view of an object obtained by the camera through a designated region of the foldable display based on a first state of the foldable display; divide the foldable display into a first region for a live view and a second region for a lighting plate with respect to a folding site based on a second state of the foldable display; display a live view of an object obtained by the camera based on the first region; and output illumination light based on the second region.

Abstract: An imaging device that includes pixels arranged in a matrix having rows and columns, the pixels including first pixels and second pixels different from the first pixels, the first pixels and the second pixels being located in one of the columns, each of the pixels including a photoelectric converter that converts incident light into signal charge, and a first transistor having a first gate, a first source and a first drain, the first gate being coupled to the photoelectric converter. The imaging device further includes a first line coupled to one of the first source and drain of the first pixels; a second line coupled to one of the first source and drain of the second pixels; a third line coupled to the other of the first source and drain of the first pixels; and voltage circuitry coupled to the third line and that supplies a first and second voltage.

Abstract: In an imaging device, a first motion information acquisition unit acquires motion information of the imaging device, and a second motion information acquisition unit acquires motion information of an external device. A shake information generation unit performs a process of subtracting the motion information of the external device from the motion information of the imaging device on the basis of the acquired motion information of the imaging device and the external device. Image blur correction information is generated from the subtracted motion information. An image blur correction control unit performs driving control of a correction lens of an optical system and a movement mechanism unit of an imaging element in accordance with the image blur correction information from the shake information generation unit.

Abstract: An image blur correction apparatus comprises an obtainment unit configured to obtain shake information; a plurality of image blur correction amount calculation units including a first image blur correction amount calculation unit configured to calculate image blur correction amounts that respectively correspond to partial images included among a plurality of continuous images, and a second image blur correction amount calculation unit configured to calculate image blur correction amounts that respectively correspond to partial images included among the plurality of continuous images with use of a method different from a method used by the first correction amount calculation unit; and control unit configured to control the plurality of image blur correction amount calculation units.

Abstract: A display method includes acquiring captured image data generated by capturing an image of a second area containing a first area, the captured image data containing first partial data representing an image of the first area and second partial data representing an image of the second area, recognizing an object located in the first area by using the first partial data with no use of the second partial data, displaying a first image that underwent a first process according to the position of the object when the object is recognized as a first pointing element and when the object moves from the first area onto a display surface, and displaying a second image that underwent a second process according to the position of the object when the object is recognized as a second pointing element and when the object moves from the first area onto the display surface.

Abstract: The techniques of this disclosure relate to a system for adjusting a focus of an image. A system includes a phased metalens configured to adjust a focus of an image detected by an imaging substrate of an image sensor to compensate for warpage of the imaging substrate. The phased metalens can achieve a near-diffraction-limited focusing over incoming light wavelengths using precisely defined nanoscale subwavelength resolution structures.

Abstract: Described herein is an imaging system (200) for a driver monitoring system (100). The imaging system (200) includes a light source (108) for generating an input light beam (202) and projecting the input light beam (202) along a path towards a driver (102) of a vehicle. System (200) also includes a dielectric metasurface (201) positioned within the path of the input light beam (202). The metasurface (201) has a two dimensional array of surface elements configured to impose predetermined phase, polarization and/or intensity changes to the input light beam (202) to generate an output light beam (204) for illuminating the driver (102). System (200) further includes an image sensor (106) configured to image reflected light (208) being light from the output light beam (204) that is reflected from the driver.

Abstract: An image capturing apparatus in which a plurality of pixels each having a plurality of photoelectric conversion units for receiving light fluxes that have passed through different partial pupil regions of an imaging optical system are arrayed, wherein an entrance pupil distance Zs of the image sensor with respect to a minimum exit pupil distance Lmin of the imaging optical system and the maximum exit pupil distance Lmax of the imaging optical system satisfies a condition of 4 ? L min ? L max L min + 3 ? L max < Z S < 4 ? L min ? L max 3 ? L min + L max .

Abstract: A signal processing device includes an acquisition unit configured to acquire a first shake detection signal indicating a detection result of a lens shake detection unit included in an interchangeable lens and a second shake detection signal indicating a detection result of a camera shake detection unit included in a body unit and a determination unit configured to determine a correction amount which is used to correct the first shake detection signal based on the first shake detection signal and the second shake detection signal. The determination unit changes a process parameter for determining the correction amount in accordance with information regarding the camera shake detection unit or information regarding the second shake detection signal. The process parameter includes at least one of a restriction frequency and a gain for the correction amount.

Abstract: Electronic devices are often equipped with a camera for capturing video content and/or a display for displaying video content. However, amateur users often capture video content without regard to composition, framing, or camera movement, resulting in video content that can be jarring or confusing to viewers. There is a need to automate the processing and presentation of video content in an aesthetically pleasing manner. The embodiments described herein provide a method of automatically cropping video content for presentation on a display.

Abstract: An image capture system that can ensure the rigidity and heat dissipation performance of an external connection apparatus, and also has excellent wireless communication performance. An image capture apparatus includes a first wireless communication section. An external connection apparatus includes a second wireless communication section. The second wireless communication section performs wireless communication with the first wireless communication section. The external connection apparatus is removably attached to the image capture apparatus. The first wireless communication section is disposed toward an attachment surface of the image capture apparatus to which the external connection apparatus is attached, with respect to the photographing optical axis. In a state in which the external connection apparatus is attached to the image capture apparatus, the two wireless communication sections are opposed to each other in a direction orthogonal to a direction of attaching the apparatuses to each other.

Abstract: An electronic device according to an embodiment includes a camera movement assembly configured to move a camera module between the inside and the outside of a housing.

Abstract: An image pickup apparatus includes an image sensor configured to acquire an image, an image-stabilization mechanism configured to reduce blur, a shutter apparatus including a front blade group and a rear blade group, and a control unit configured to provide control on image stabilization. The image sensor has a first mode for acquiring the image based on light passing through an area formed by the front blade group and the rear blade group, and a second mode for acquiring the image based on light passing through an area between an electronic front curtain of the image sensor and the rear blade group. In the first mode, the control unit provides the control on the image stabilization. In the second mode, the control unit determines whether or not to provide the control on the image stabilization, based on a shutter speed of the shutter apparatus.

Abstract: A control unit provided in a digital camera acquires an image and a focus map serving as distribution information of an evaluation value corresponding to the image, and outputs the acquired image or the acquired focus map. When an operation that providing instructions for the magnification of magnification display of the image or the focus map is performed, the control unit executes output control to coordinate the display of the image and the display of the focus map with each other, in response to the above operation.

Abstract: Stabilizing an image capture device includes stabilizing the image capture device as the image capture device captures images; responsive to detecting an exceptional activity, stopping the stabilizing of the image capture device; and after the exceptional activity is completed, stabilizing the image capture device again. An image stabilization device for stabilizing an imaging device includes a processor that is configured to set at least one of a pitch angle or a roll angle of the image stabilization device to respective constant values and allow a yaw angle of the image stabilization device to vary; while the yaw angle is less than a threshold angle, maintain the yaw angle at a constant relative to a reference platform; when the yaw angle reaches the threshold angle, stop keeping the yaw angle relative to a reference platform constant; and set the yaw angle to follow a direction of motion of the reference platform.

Abstract: Methods and apparatus, including computer program products, for selecting a cropping area in a sequence of images captured by a camera. First external motion data including data of external factors affecting movement of the camera is correlated with internal motion data describing a movement of the camera. The first external motion data and the internal motion data are obtained during a first time interval. Second external motion data is obtained during a second time interval subsequent to the first time interval. A sequence of images being captured during a third time interval is stabilized by selecting a cropping area based on the correlation and the second external motion data. The cropping area remains constant and maximized in size with respect to the field of view of the images during the third time interval. The third time interval is subsequent to, or partly overlapping with, the second time interval.

Abstract: Multi-color flash with image post-processing that uses a camera device with a multi-color flash and implements post-processing to generate images is described. In one aspect, the multi-color flash with image post-processing may be implemented by a controller configured to control a camera and flashes of at least two different colors. The controller may be configured to cause the camera to acquire a first image of a scene while the scene is being illuminated with the first flash but not the second flash, then cause the camera to acquire a second image of the scene while the scene is being illuminated with the second flash but not the first flash, and generate a final image of the scene in post-processing based on a combination of the first image and the second image.

Abstract: Images with an optical field of view are captured by an image capture device. An observed trajectory of the image capture device reflects the positions of the image capture device at different moments may be determined. A capture trajectory of the image capture device reflects virtual positions of the image capture device from which video content may be generated. The capture trajectory is determined based on a subsequent portion of the observed trajectory such that a portion of the capture trajectory corresponding to a portion of the observed trajectory is determined based on a subsequent portion of the observed trajectory. Orientations of punch-outs for the images are determined based on the capture trajectory. Video content is generated based on visual content of the images within the punch-outs.