Abstract: A pixel cell array includes a plurality of pixel cells, each including one or more photodiodes configured to generate image charge in response to incident light, a floating diffusion coupled to receive the image charge, a source-follower transistor having a gate coupled to the floating diffusion to generate an image signal at a first source/drain region of the source-follower transistor in response to the image charge in the floating diffusion, a first row select transistor having a first source/drain region coupled to the first source/drain region of the source-follower transistor, and a second row select transistor having a first source/drain region coupled to a second source/drain region of the first row select transistor. The first source/drain regions of the second row select transistors included in a first pixel cell and a second pixel cell included in the plurality of pixel cells are coupled together through a common junction.

Abstract: A display device according to an embodiment of the disclosure may: obtain a first image which is a target image and a second image captured through the at least one camera, extract a common component between the first image and the second image, split a first area including the common component in the first image into a plurality of first sub areas and identify an attribute value associated with at least one of a color or a brightness corresponding to each of the plurality of first sub areas as a per-first sub area attribute value, split a second area including the common component in the second image into a plurality of second sub areas and identify an attribute value associated with at least one of a color or a brightness corresponding to each of the plurality of second sub areas as a per-second sub area attribute value, identify that a difference between at least one first attribute value corresponding to at least one third sub area among the plurality of first sub areas and at least one second attribute v

Abstract: A device comprising: a camera housing; a first carrier; an image sensor carried by the first carrier; a second carrier, wherein: the first carrier is attached to the second carrier via a first plurality of objects that move within a first plurality of channels having first stroke axes that are not parallel to a plane of the image sensor, and the second carrier is attached to the camera housing via a second plurality of objects that move within a second plurality of channels having second stroke axes that are not parallel to both the plane of the image sensor and the first stroke axes; and one or more optical image stabilization (OIS) actuators configured to apply forces to move the first carrier along the first stroke axes and move the second carrier along the second stroke axes.

Abstract: A spectral camera includes a spectral filter having an optical region that transmits light having a predetermined wavelength out of incident light; an imaging device having an effective imaging region larger than the optical region; and an imaging optical system configured to guide the light having the predetermined wavelength passing through the optical region in such a way that the light having the predetermined wavelength is brought into focus at the imaging device. The spectral filter is disposed within a predetermined range extending along an optical axis of the imaging optical system and centered around a position where a chief ray of a luminous flux brought into focus at a peripheral section of the effective imaging region intersects with the optical axis.

Abstract: The present disclosure relates to an image system with performance-driven automatic event sensor control. The image system comprises a hybrid image sensor and control circuitry. The hybrid image sensor comprises an event driven sensing array and a pixel array. The event driven sensing array includes a plurality of event vision sensor (EVS) pixels arranged in EVS pixel rows. Each EVS pixel of the plurality of EVS pixels is configured to capture EVS data corresponding to contrast information of light incident on that EVS pixel. The pixel array includes a plurality of CMOS image sensor (CIS) pixels arranged in CIS pixel rows. Each CIS pixel of the plurality of CIS pixels is configured to capture CIS data corresponding to intensity of light incident on the CIS pixel.

Abstract: The present application provides a photographing method and device. The solution acquires a first image through a camera module, then acquires a second image conforming with a composition mode, according to the first image, and in turn determines photographing parameters suitable for the second image, and photographs the second image based on the photographing parameters.

Abstract: An image sensor includes a first chip including a pixel array including a plurality of pixels, and a second chip including a peripheral circuit configured to drive the pixel array and process a pixel signal output from the pixel array, where the first chip and the second chip are stacked, the peripheral circuit is implemented with a plurality of field effect transistors (FETs), and at least one channel structure of each of the plurality of FETs all extend in a same direction.

Abstract: The present disclosure discloses a water-cooled heat dissipation structure applied to underwater photographic equipment, including a waterproof case and a water-cooled heat dissipation mechanism, wherein a cavity is disposed in the waterproof case; the water-cooled heat dissipation mechanism includes a control module, a pump body and a pipe body, wherein the control module is electrically connected to the pump body; the pipe body is disposed in the cavity; a water inlet end of the pipe body penetrates through the waterproof case and is connected to the pump body; and a water outlet end of the pipe body penetrates through and extends outside the waterproof case. The pump body can draw water into the pipe body via the water inlet end and water flow out from the water outlet end, improving the heat dissipation performance of the camera and ensuring the normal use of the camera for a long time.

Abstract: The system has a camera and a lens unit, and in a first mode, a diaphragm of the lens unit is controlled such that an effective aperture value is a first aperture value set according to a user operation and in the camera, a photometric value is calculated from a frame image during a Live View operation in a state where an amount of light received is adjusted by the diaphragm.

Abstract: A pixel binning apparatus and a method for a charge-domain CMOS TDI image sensor, comprising a row of a first transfer gate coupled to a first row of a plurality of pixel registers, a plurality of binning registers coupled to the first transfer gate, a plurality of second transfer gates coupled to the plurality of binning registers, and a row of storage registers coupled to the plurality of second transfer gates.

Abstract: An image stabilization apparatus comprising: a control unit that controls image stabilization for reducing image blur, by shooting a plurality of images with an image sensor, and aligning and compositing the plurality of images; an acquisition unit that acquires information relating to an exposure period and a resolving power of an image capturing system including the image sensor; and a determination unit that determines whether to perform the image stabilization, based on the information.

Abstract: EVS event data may be stored in an event buffer as a plurality of event values, each event value corresponding to a respective event frame of the plurality of event frames. For each event frame, a processor may implement an improved EDI model to update the event-frame count, for each event frame after a first event frame, and only when a current event value is different than an immediately preceding event value: (1) updating a first integral of event data based on the current event value and all preceding event values, and (2) updating a second integral of event data based on at least the first integral of event data and the event frame count, and using at least the second integral of event data, deblurring raw image data to yield a latent deblurred image.

Abstract: A camera device and method are described that perform object detection on sensor data generated by an image sensor to detect an input device within an environment outside of the camera device. The camera device and method analyze the sensor data to detect a hand of a user within the environment, and determine an impending use of the input device by the user based on a proximity of the hand to the input device and/or movement of the hand. Responsive to determining the impending use, the camera device and method generate an image data stream that includes altered image content within an area of interest that encompasses in the input device. The altered image content is not an accurate representation of the hand manipulating the input device in the environment, thereby precluding capture of manual data entry in the image data stream.

Abstract: An image sensor is provided in a semiconductor chip and includes an image capturing circuit configured to output an image signal representing an image, a plurality of output terminals that are electrically connected to the image capturing circuit, and a switching circuit electrically connected between the image capturing circuit and the plurality of output terminals, the switching circuit being controlled to output the image signal output from the image capturing circuit through one of the output terminals, based on a mode indication signal indicating an output mode of the image sensor.

Abstract: A system of camera privacy for telemedicine includes a computing device, a camera comprising a lens, and a cover extending over at least the lens. The cover is communicatively connected to the computing device, and the cover is configurable to be in a first state or a second state. The first state configures the cover to block a field of view of the lens to prevent the camera from capturing visual information from a far side of the cover. The computing device is configured to identify a first condition. In response to identifying the first condition, the computing device transmits a signal to the cover that configures the cover to be in the second state.

Abstract: The present disclosure relates to an avalanche photodiode pixel including: a transistor adapted to be controlled by an enable signal having a first state for controlling the enabling of the pixel and a second state for controlling the disabling of the pixel, the transistor being configured to couple an avalanche photodiode of the pixel to a node of application of a substrate voltage when the enable signal is in the first state; and an output circuit adapted to be controlled by the enable signal and configured to provide a pixel output signal when the enable signal is in the first state and to block the pixel output signal when the enable signal is in the second state.

Abstract: A communication apparatus includes a network interface that communicates with an image capture apparatus, a display device configured to display a file obtained from the image capture apparatus via the network interface, at least one memory for storing the obtained file which is being displayed on the display device, and also storing executable instructions, and at least one processor, that upon execution of the stored instructions, is configured to determine whether the obtained file being displayed on the display device is a chunk recording file, and restrict storage of the obtained file when it is determined that the obtained file to be stored is a chunk recording file.

Abstract: Provided is an imaging apparatus which allows, for all or some of multiple frame rate modes, selection of multiple frame rates including a frame rate same as that in another frame rate mode. Moreover, the imaging apparatus is configured to carry out control to perform frame rate setting in each frame rate mode according to an operation.

Abstract: An image acquisition system configured to acquire an image of an object to be conveyed. The system includes a plurality of light sources configured to emit light rays with which the object is irradiated, a light source control unit configured to switch a light source that irradiates the object with the light among the plurality of light sources, and a line scan sensor configured to detect light from the object irradiated with the light. The line scan sensor has a pixel section in which a plurality of pixels are at least one-dimensionally arrayed and is configured to switch a gain value for amplifying a signal from each pixel. The line scan sensor switches the gain value in synchronization with the switching of the light source.

Abstract: System and method to perform targeted image adjustments starts with a processor receiving a media content item and identifies an image adjustment parameter and an adjustment value based on the media content item. Processor generates an adjusted media content item using the image adjustment parameter and the adjustment value and causes an adjustment interface to be displayed by a display of a user device. The adjustment interface can comprise the adjusted media content item and a selectable item associated with the image adjustment parameter. The selectable item can include settings. In response to receiving a selection of one of the settings of the selectable item, processor generates a final media content item based on the selection of the one of the settings, and cause the final media content item to be displayed by the display of the user device. Other embodiments are described herein.