Abstract: An image processing method includes a step for converting current posture information of a camera into target posture information, where the current posture information includes current angular velocity information. The method also includes a step for acquiring first depth information of each pixel point in an image to be processed under a current posture. The method also includes a step for determining second depth information of each pixel point under a target posture according to the first depth information. The method also includes a step for obtaining a target image according to the current posture information, the first depth information, the target posture information, the second depth information, and first internal parameter information of the camera.

Abstract: Provided is a solid-state imaging element including a pixel circuit and a comparison transistor. In the solid-state imaging element, the pixel circuit generates a pixel signal and outputs the pixel signal to a vertical signal line. Further, the comparison transistor has a source connected to a constant current source configured to supply a constant current to the vertical signal line. The comparison transistor has a gate to which a predetermined reference signal is input. Further, the comparison transistor has a drain from which a comparison result between the pixel signal and the reference signal is output.

Abstract: Techniques and apparatuses are described for reducing a flicker effect of multiple light sources in an image captured with an imaging device. A lighting frequency associated with each of the multiple light sources is detected and prioritized relative to a flicker effect upon the image to identify at least a first-prioritized lighting frequency and a second-prioritized lighting frequency. A first exposure-time factorization set is determined for the first-prioritized lighting frequency, and a second exposure-time factorization set is determined for the second-prioritized lighting frequency. An exposure time of the imaging device is adjusted to an exposure time identified in the first exposure-time factorization set that matches, or aligns near-to-matching, an exposure time identified in the second exposure-time factorization set.

Abstract: An image processing method includes a step for converting current posture information of a camera into target posture information, where the current posture information includes current angular velocity information. The method also includes a step for acquiring first depth information of each pixel point in an image to be processed under a current posture. The method also includes a step for determining second depth information of each pixel point under a target posture according to the first depth information. The method also includes a step for obtaining a target image according to the current posture information, the first depth information, the target posture information, the second depth information, and first internal parameter information of the camera.

Abstract: To reduce power consumption of a driver circuit used in a vertical drive circuit of an image processing device. In the driver circuit, a drive signal output circuit outputs a drive signal in accordance with a predetermined trigger signal. Furthermore, at a time of rising of the drive signal, a step-up switch sequentially selects a plurality of voltages in ascending order, and supplies the selected voltage to the drive signal output circuit. Moreover, at a time of falling of the drive signal, a step-down switch sequentially selects a plurality of voltages in descending order, and supplies the selected voltage to the drive signal output circuit.

Abstract: An image processing apparatus includes a parameter control section adapted to acquire, at a predetermined rate, motion information of an imaging apparatus that captures a video and control an exposure time on the basis of the motion information, and an output section adapted to output data obtained by performing a predetermined process on an image captured by the imaging apparatus with the exposure time.

Abstract: An electronic device includes a camera module comprising a circuit board, a lens, a first IC chip, and at least one metal column. The lens is mounted on the circuit board. The first IC chip and the metal column are arranged on a surface of the circuit board away from the lens. An attachment includes a body and a second IC chip. The first IC chip and the second IC chip can communicate with each other. The circuit board includes a first surface closed to the attachment. The metal column is arranged on the first surface, and the body includes a second surface close to the camera module. The body further includes at least a connecting channel. The metal column is located in the connecting channel to realize the electrical connection between the camera module and the attachment.

Abstract: An apparatus comprises a sensor configured to capture a subject, a photometric unit configured to perform photometry using at least either a first image, or a second image intended for recording, both of which are captured using the sensor, a determination unit configured to determine exposure of the second image to be captured next, based on a result of photometry performed using the image that is less affected by flicker among the first image and the second image, wherein the first image and the second image can be displayed on a display device during continuous shooting using the sensor.

Abstract: Disclosed is an electronic device including a display module and a camera module. The display module includes a first substrate and a second substrate stacked with each other, a wiring structure having a light passing hole, and a polarizer disposed on a side surface of the first substrate and being away from the second substrate. The camera module includes a camera body provided with a light entering hole and a light shielding layer provided with a second light passing hole. The first light passing hole, the second light passing hole, and the light entering hole are arranged on an optical axis direction of the camera module. Orthographic projections of both the first and second light passing holes on a plane perpendicular to the optical axis direction are located within an orthographic projection of the light entering hole on the plane perpendicular to the optical axis direction.

Abstract: In one aspect of the present disclosure, a module is disclosed for use with a digital image capturing device (DICD) including an integrated sensor-lens assembly (ISLA). The module includes a cradle configured for connection to a housing of the DICD, and at least one dampener that is configured for positioning between the module and the housing of the DICD to reduce vibrations transmitted to the ISLA.

Abstract: A camera may include a printed circuit board (PCB) that may include at least one coil and at least one position sensor. The coil may be embedded at least partially inside the PCB at a first side of the PCB, whilst the position sensor may be attached to the PCB at a second side opposite the first side. The PCB may include an aperture through the PCB at a location corresponding to the position sensor to enhance sensing of the position sensor. The PCB may further include at least one recess inside which the position sensor may be attached to the PCB.

Abstract: The present disclosure provides systems, apparatus, methods, and computer-readable media that support improved image signal processing, particularly in low-light or high dynamic range (HDR) scenes. The image processing techniques may include performing two automatic exposure control (AEC) operations, in which a first AEC operation targets obtaining good conditions for autofocus (AF) operation, and a second AEC operation follows the AF operation and targets obtaining good conditions for an image capture. The image processing techniques may also include communication between the AEC operations and AF operations to coordinate the operations by locking and releasing exposure levels and focus positions as part of the image signal processing.

Abstract: A multi-modal imaging device can include a sensor array, a metamaterial filter, and a memory unit. The sensor array can be any suitable sensor which detects incoming light and is capable of recording a received image. The metamaterial filter can be oriented adjacent the sensor array and can be patterned with pixels having varied physical heights designed to diffract an incoming image to produce an engineered response which is sensitive to 2D spatial coordinates (x, y), time (t), and at least one of depth spatial coordinate (z), spectrum (?), and degree of polarization ({right arrow over (S)}). The memory unit can include instructions that, when executed by a processor, reconstruct the engineered response to produce a reconstructed image which includes the 2D spatial coordinates and at least one of z, ?, and {right arrow over (S)}.

Abstract: Example are described for combining optical image stabilization and electronic image stabilization for capture and processing of frames for video. An example device configured to perform electronic image stabilization in light of optical image stabilization performed may include a memory and one or more processors. The one or more processors may be configured to obtain optical image stabilization (OIS) information for OIS performed during capture of a sequence of frames by an image sensor and determine an electronic image stabilization (EIS) filter based on the OIS information. The one or more processors may also be configured to obtain camera position information, and the EIS filter may also be based on the camera position information. The one or more processors may also configure an image signal processor to perform EIS based on the EIS filter.

Abstract: To improve the frame rate in an imaging apparatus that carries out still image recording and moving image display simultaneously. A pixel array includes an arrangement of a plurality of pixels. The plurality of pixels each include an internal memory. An exposure control unit carries out first exposure control in which captured data obtained by performing exposure to all the plurality of pixels together is retained in the internal memories of the pixels. The exposure control unit also carries out second exposure control in which captured data obtained by performing exposure to specific pixels of the plurality of pixels together is retained in the internal memories of the pixels.

Abstract: After a command to stop recording a video is received, an image capture device may buffer footage in a buffer memory. The buffer memory may be used as a post-capture cache. The footage buffered in the buffer memory may be appended to the end of previously captured footage, appended to the beginning of subsequently captured footage, and/or used to bridge two separately captured footage.

Abstract: A portable electronic device and an image-capturing module thereof are provided. The image-capturing module includes a circuit substrate, an image sensing chip, a rigidity reinforcing structure, and a lens assembly. The circuit substrate has a plurality of conductive substrate contacts. The image sensing chip is disposed on the circuit substrate and electrically connected to the circuit substrate. The image sensing chip includes an image sensing region, and a plurality of conductive chip contacts respectively and electrically connected to the conductive substrate contacts. The rigidity reinforcing structure is disposed on the circuit substrate. The lens assembly includes a lens holder and a lens structure disposed on the lens holder, and the lens structure corresponds to the image sensing region. A perpendicular projection of each of the conductive substrate contacts and a perpendicular projection of each of the conductive chip contacts can be shown on the rigidity reinforcing structure.

Abstract: An image processing device (1) includes an exposure control unit (102), a ? pose estimating unit (109), and an integration unit (111). The exposure control unit (102) controls exposure by sequentially performing positive correction of increasing exposure from proper exposure or negative correction of decreasing exposure from the proper exposure as the exposure at a time of acquiring each of a plurality of image frames in time series in a predetermined execution order. The ? pose estimating unit (109) estimates first position pose of the image processing device based on matching between image frames subjected to the positive correction and second position pose of the image processing device based on matching between image frames subjected to the negative correction. The integration unit (111) integrates the first position pose and the second position pose.

Abstract: According to an embodiment disclosed in this specification, an electronic device may include a camera including an image sensor, a display panel, a display driver integrated circuit (DDI) that drives the display panel at a first frame rate, a memory, and a processor operatively connected to the camera, the display panel, the DDI, and the memory. The DDI may drive the display panel in a plurality of cycles to output one frame corresponding to the first frame rate. The camera may perform exposure of the image sensor in a section, in which one or more lines among lines constituting the display panel do not emit light, in the plurality of cycles. The memory may store instructions that, when executed, cause the processor to determine illuminance around the electronic device using image data according to the exposure. Moreover, various embodiment found through the disclosure are possible.

Abstract: An overlight amount detection circuit (1) according to the present disclosure includes a MOS transistor and a high-impedance element (Ca). A source of the MOS transistor (Mn1) is connected to a vertical signal line (VSL) of an image sensor. The high-impedance element (Ca) is connected to a drain of the MOS transistor (Mn1). The overlight amount detection circuit (1) detects a potential fluctuation of the vertical signal line (VSL) based on a potential defined by a gate potential of the MOS transistor (Mn1), and outputs a potential of a contact point between the drain of the MOS transistor (Mn1) and the high-impedance element (Ca) as a signal indicating an overlight amount detection result.