Abstract: Image sensing devices are disclosed. In one example, an image sensing device includes a pixel unit cell with both event sensing (EVS) pixels and imaging pixels. The EVS and imaging pixels are configured to include event sensing and imaging pixel transistors formed in the same transistor layer of an integrated circuit assembly that also includes the photodiodes of the EVS and imaging pixels. The photodiodes are separated by a rear deep trench isolation (RDTI), and the EVS and imaging pixel transistors are arranged along (e.g., underneath) boundary areas formed by the RDTI, maximizing the space available for the photodiodes and economizing on wiring requirements for the EVS and imaging pixels.

Abstract: An imaging device including: a first semiconductor substrate; a second semiconductor substrate; and a wiring layer. The first semiconductor substrate has a first surface and a second surface and includes a sensor pixel. The second semiconductor substrate has a third surface and a fourth surface and includes a readout circuit that outputs a pixel signal based on an output from the sensor pixel. The second semiconductor substrate is stacked on the first semiconductor substrate with the first surface and the fourth surface opposed to each other. The wiring layer is between the first semiconductor substrate and the second semiconductor substrate and includes a first wiring line and a second wiring line that are electrically coupled to each other. One of the first wiring line and the second wiring line is in an electrically floating state while the other is electrically coupled to a transistor.

Abstract: An imaging support device that supports imaging performed by an imaging apparatus includes an acquisition portion that acquires an in-image shift amount between a predetermined position in a captured image obtained by capturing an imaging region by an imaging element and a position of a target subject image showing a target subject, and a focal length of the imaging apparatus, a derivation portion that derives a movement amount required for moving the position of the target subject image to a specific position by a position adjustment portion which adjusts the position of the target subject image in the captured image, based on the in-image shift amount acquired by the acquisition portion, the focal length acquired by the acquisition portion, and information related to a pixel interval of pixels in the imaging element, and an output portion that outputs the movement amount derived by the derivation portion.

Abstract: This application provides a long-focus shooting method and an electronic device. The method may be performed by an electronic device such as a tablet or a watch that has a digital zoom capability and a long-focus shooting capability. In a long-focus shooting process, in this method, two framed pictures are simultaneously displayed, an original framed picture at “5×” is displayed in an auxiliary viewfinder window, and a framed picture obtained after a user adjusts a magnification to “50×” is displayed in an image preview display area, to provide the user with two preview pictures with different fields of view. In the long-focus shooting process, based on the original framed picture at “5×” displayed in the auxiliary viewfinder window, the user finds a subject of a shooting target more easily. This improves long-focus shooting experience.

Abstract: One embodiment according to the technology of the present disclosure provides an optical element, an optical device, an imaging apparatus, and a manufacturing method of the optical element, for capturing a multispectral image. An optical element according to an aspect of the present invention includes a plurality of optical filters including two or more optical filters that transmit light beams having at least partially different wavelength ranges, and a frame having an inclined surface portion with an optical axis center as an apex, in which the plurality of optical filters are installed on the inclined surface portion.

Abstract: A sensor driving apparatus according to the embodiment includes a fixed portion including a first substrate; an elastic member disposed on the first substrate; and a sensor moving portion disposed on the elastic member; wherein the elastic member includes: a first insulating portion; a second insulating portion spaced apart from the first insulating portion; and an elastic connection portion connecting the first insulating portion and the second insulating portion; wherein the elastic connection portion electrically connects the fixed portion and the moving portion.

Abstract: An electronic device and an in-screen optical detection assembly. The electronic device includes a middle frame, a screen, a circuit board, and a color temperature detection assembly, where the screen includes a display and a cover plate located on one side of the display; the middle frame is located between the display and the circuit board and provided with a first through hole; the optical detection assembly includes a light shield body and a light sensor, where the light shield body is provided with a light hole, a first end of the light shield body is connected to the circuit board, and a second end of the light shield body passes through the first through hole and extends to one side of the screen facing the middle frame; and the light sensor is disposed on the circuit board and located in the light hole.

Abstract: A device for estimating a scene illumination color for a source image is configured to: determine a set of candidate illuminants and for each of the candidate illuminants, determine a respective correction of the source image; for each of the candidate illuminants, apply the respective correction to the source image to form a corresponding set of corrected images; for each corrected image from the set of corrected images, implement a trained data-driven model to estimate a respective probability of achromaticity of the respective corrected image; and based on the estimated probabilities of achromaticity for the set of corrected images, obtain a final estimate of the scene illumination color for the source image. This approach allows for the evaluation of multiple candidate illuminates to determine an estimate of the scene illumination color.

Abstract: A depth sensor and an image detecting system including the same are provided. The depth sensor includes a pixel that generates an image signal based on a sensed light. The pixel includes a first photo transistor that integrates first charges based on a first photo gate signal toggling during an integration period, a second photo transistor that integrates second charges based on a second photo gate signal toggling during the integration period, a first transfer transistor that transfers the first charges to a first floating diffusion node based on a first transfer gate signal, a second transfer transistor that transfers the second charges to a second floating diffusion node based on the first transfer gate signal, and a switch that is connected with the first photo transistor, the second photo transistor, the first transfer transistor, and the second transfer transistor.

Abstract: This disclosure provides methods, devices, and systems for transmitting and receiving image data. The present implementations more specifically relate to repurposing non-video interfaces to receive image data. In some aspects, an image processing device may be coupled to an image source via an audio interface. For example, the audio interface may be an inter-IC sound (I2S) serial bus interface having at least a serial data input and a word select (WS) input. In some implementations, the serial data input may be coupled to receive image data from the image source and the WS input may be coupled to receive a WS signal that tracks a horizontal synchronization (HSYNC) signal associated with the image data. Accordingly, the image processing device may capture (or store) frames of received image data, where the beginning of each frame is aligned with an edge of the WS signal (and thus, the HSYNC signal).

Abstract: An image capture device includes a mechanical stabilization system is used in image signal processing. The mechanical image stabilization system has an operating bandwidth and includes a motor to control an orientation of an image sensor. A processing apparatus of the image capture device determines a temperature of the motor and adjusts a cutoff frequency of the operating bandwidth based on the temperature of the motor.

Abstract: Security systems and methods. In one example, a method includes operating a camera in a first mode, based on detection of an alarm condition at a location of the camera, adjusting the camera from the first mode to a second mode, including increasing a sensitivity setting of at least one sensor of the camera, and disabling use of object detection within the camera.

Abstract: One embodiment according to the technology of the present disclosure provides an optical element, an optical device, an imaging apparatus, and a manufacturing method of the optical element, for capturing a multispectral image. An optical element according to an aspect of the present invention includes a plurality of optical filters including two or more optical filters that transmit light beams having at least partially different wavelength ranges, and a frame having an inclined surface portion with an optical axis center as an apex, in which the plurality of optical filters are installed on the inclined surface portion.

Abstract: An orbital camera system has at least two extensions that extend from a hub to rotate a camera about a hub in a balanced and low vibration manner. In addition, the exemplary orbital camera system is versatile in configuration having extensions with hinges to allow variations in the configuration. The hub may be powered by a motor that provides smooth rotation even at low speeds. The hub is coupled to a down rod and the motor may be detachably attached to the down rod. A counterweight may be a battery or a battery station that enables detachable attachment of a battery thereto. An illumination light is coupled to the hub to provide uniform light over the imaging area. A focal element and/or a centering light emitter may be configured along the rotational axis for aid in placing an object to be imaged.

Abstract: A system for aligning an item along a path in an area comprising: a camera configured to capture an image containing part of the area and the item; a first transceiver connected to the camera to read the image from the camera; a second transceiver coupled to the first transceiver; a display connected to the second transceiver; wherein the first transceiver is configured to transmit the image to the second transceiver, the second transceiver is configured to transmit the image to the display in order to present the image on the screen of the display, and the transmitted image or the screen of the display includes a reference path, the reference path visible on the screen representing the path in the area; wherein the reference path is configured on the screen such that alignment of the reference path with the item in the image indicates alignment of the item in the area with the path in the area.

Abstract: The application provides an electronic system and an image aggregation method thereof. The electronic system includes a plurality of image pickup devices and an image aggregation device coupled to the image pickup devices. The image aggregation device controls trigger of the image pickup devices. When the image pickup devices are triggered, the image pickup devices pickup a plurality of images and send to the image aggregation device. The image aggregation device flexibly selects the images pickup by the image pickup devices to flexibly aggregate into an aggregated image.

Abstract: An imaging device of an embodiment has a first substrate, a second substrate, a wire, and a trench. The first substrate has a pixel having a photodiode and a floating diffusion that holds a charge converted by the photodiode. The second substrate has a pixel circuit that reads a pixel signal based on the charge held in the floating diffusion in the pixel, and is stacked on the first substrate. The wire penetrates the first substrate and the second substrate in a stacking direction, and electrically connects the floating diffusion in the first substrate to an amplification transistor in the pixel circuit of the second substrate. The trench is formed at least in the second substrate, runs in parallel with the wire, and has a depth equal to or greater than the thickness of a semiconductor layer in the second substrate.

Abstract: Systems, video cameras, and methods for using audio sensors to control surveillance video capture are described. A video camera and audio sensor are deployed so that the audio sensor has an audio field that is at least partially outside the field of view of the video camera. The audio sensor collects audio data from the audio field and a controller for the video camera uses audio events from the audio data for modifying the video capture operations of the video camera. Video data is then captured based on the modified video capture operations, such as initiating video capture, changing the video capture rate, or changing the camera position.

Abstract: Placement of a face depicted within a video may be determined. One or more stabilization options for the video may be obtained. Stabilization option(s) may include angle stabilization option, a position stabilization option, and/or a size stabilization option. The video may be stabilized based on the placement of the face and the stabilization option(s).

Abstract: A device includes an electronic processor configured to define a first set of sample pixels from a set of sample pixels determined from received video data according to a first electro-optical transfer function (EOTF) in a first color representation of a first color space; convert the first set of sample pixels to a second EOTF via a mapping function, producing a second set of sample pixels according to the second EOTF; convert the first and second set of sample pixels from the first color representation to a second color representation of the first color space; determine a backward reshaping function by repeatedly applying and adjusting a sample backward reshaping function so as to minimize a difference between predicted pixel values obtained by applying the sample backward reshaping function to the pixels of the converted first set and the pixels of the converted second set.