Abstract: The present disclosure relates to a focus tracking system and method.

Abstract: Examples disclosed herein provide a computing device. As an example, the computing device includes a camera comprising a lens, and a housing comprising an opening extending through the housing, wherein the opening is to accommodate the lens. The housing further includes a shutter to selectively obscure the opening, and a mechanical trigger, upon receiving an electrical signal, to move the shutter to obscure the opening.

Abstract: A process of manufacturing an imaging element is simplified. The imaging element includes a polarization pixel and a phase difference pixel. The polarization pixel included in the imaging element includes a polarizer transmitting incident light having a specific polarization direction and generates an image signal based on the incident light being from a subject and being transmitted through the polarizer. The phase difference pixel included in the imaging element includes a light shielding film being formed simultaneously with the polarizer and being disposed to be shifted in a predetermined pupil-division direction for pupil-dividing the incident light from the subject and generates an image signal for detecting a phase difference.

Abstract: An image capture apparatus includes an image capture device, a driving device configured to drive to change an orientation of the image capture device; an input device configured to receive input of voice, and a controller configured to, if the input voice is an instruction to shoot an image, perform control of stopping the driving device and causing the image capture device to capture an image at a stopping position, and also of moving the orientation of the image capture device from the stopping position by a predetermined amount in positive and negative directions in the drive direction and causing the image capture device to capture images at the position after being moved in the positive direction and the position after being moved in the negative direction.

Abstract: A video recording system improves the control and monitoring of body worn cameras, such as those worn by police. The system may communicate through a private radio network. Operation of cameras and other controlled devices are configured by a system controller. Events of interest may be recorded, may initiate or restrict system functions, and may be collected for evaluating system efficacy and policy compliance. Body worn cameras of the system begin recording video upon being disconnected from a camera dock. A mobile device may be associated with the camera and have a recording management application. The controller may synchronize settings for the camera with the recording management application, and the mobile device has no administrative control over the application.

Abstract: Adjusting camera settings based on a display, including identifying display settings of a display coupled to an information handling system, the display settings including a current color profile of the display; accessing a look-up table (LUT), the LUT identifying, for each color profile of a plurality of color profiles, camera settings parameters associated with a camera coupled to the information handling system; identifying, based on the LUT, one or more camera settings parameters associated with the current color profile of the display; applying the identified camera settings parameters to the camera settings at the camera; obtaining, from the camera, an image that is based on the applied camera settings that corresponds to the current color profile of the display; and providing the image for presentation at the display.

Abstract: An image capturing apparatus, comprising, an image capturing unit configured to capture an image, a communication unit configured to communicate with a client and a server via a network, and a processing unit configured to execute first processing for communication with the client and second processing for communication with the server, wherein the communication with the client and the communication with the server include transmission of the image, and after the first processing and the second processing have been started, the processing unit stops the first processing when the communication unit has established the communication with the server, and does not stop the first processing when the communication unit has not established the communication with the server.

Abstract: A wearable camera includes a capturing unit configured to capture video data, a memory configured to store the video data captured by the capturing unit, a plurality of sound collectors that are arranged at different positions of a casing and that are configured to collect a sound and output signals, and a controller that is configured to determine a direction from which the sound is emitted based on a deviation of output timings of the signals and add the direction as attribute information to the video data.

Abstract: A method enhances brightness in video frames of a video during streams. The method includes determining, by a processor, that a first video frame has low light. The method further includes applying, by the processor, a linear correction to provide a first brightness enhancement in the first video frame that modifies a first brightness of a predetermined darkest percentage of pixels to be less than a darkness threshold value or a second brightness of a predetermined lightest percentage of the pixels to be greater than a lightness threshold value. The method further includes averaging, by the processor, the first brightness enhancement of the first video frame with a set of brightness enhancements corresponding to previous video frames to generate a modified video.

Abstract: In general, techniques are described regarding adaptation of image capture modes to provide refined image capture capabilities. Cameras comprising image sensors configured to perform the techniques are also disclosed. An image sensor may use different image capture modes to capture frames of image data based at least in part on various operating conditions. For example, the processor can cause an image sensor to transition between image capture modes specifying different binning levels in the case that a digital zoom level satisfies a predefined threshold.

Abstract: An image sensor including: a plurality of phase shift code generators, wherein each of the plurality of phase shift code generators outputs a phase shift code; a test data selection circuit for outputting test data corresponding to a test pattern; a counter for receiving the phase shift code from at least one of the plurality of phase shift code generators, receiving the test data from the test data selection circuit, latching a digital code corresponding to the test pattern using the phase shift code, and outputting the digital code; and a control logic for calculating a data pattern using the digital code and selecting one of the plurality of phase shift code generators in accordance with a result of a comparison between the data pattern and the test pattern.

Abstract: An imaging device according to an embodiment includes an imaging circuit, a variable-voltage power source, a light-emitting element, a constant current-driving circuit, and a control circuit. The control circuit is configured to turn on the light-emitting element in a period during which the imaging circuit performs imaging. The control circuit is configured to turn off the light-emitting element in a period during which the imaging circuit does not perform imaging. The control circuit is configured to control voltage applied to the light-emitting element by the variable-voltage power source on the basis of voltage of an input terminal of the constant current-driving circuit when the light-emitting element is turned on. The control circuit is configured to control the variable-voltage power source and apply predetermined voltage greater than or equal to compliance voltage of the light-emitting element to the light-emitting element when the light-emitting element is turned off.

Abstract: An imaging apparatus includes: a focus controller configured to adjust focus by driving a lens; a relative tilt angle controller configured to incline a focus surface by controlling a relative tilt angle of the lens to an image sensor; and an acquisition unit configured to acquire an installation angle of the imaging apparatus based on a relative tilt angle and a distance from a standard surface on the focus surface inclined in accordance with the standard surface. The acquisition unit acquires a relative tilt angle when the focus surface is inclined in accordance with a height of a subject based on the installation angle and a distance between the standard surface and height information of the subject, and outputs the relative ti It angle to the relative tilt angle controller.

Abstract: An image sensor includes a plurality of pixels, where each of the plurality of pixels includes a photodiode. The image sensor is configured to capture images of a scene exposed with a flickering light source by for each of the plurality of pixels, acquiring a value representative of a light level at a corresponding pixel by gradually varying a value of sensitivity of the corresponding pixel.

Abstract: An image correction device includes a reception unit, a detection unit and a correction unit. The reception unit receives a first-image and a second-image, which are obtained by a first-imaging device and a second-imaging device, and an imaging condition that is at least one piece of information on an imaging date and time or information on an imaging location corresponding to each of the first-image and the second-image. The detection unit detects the same scene between images indicated by the first-image and the second-image based on the imaging conditions corresponding to each of the first-image and the second-image. The correction unit extracts, from each of the images indicated by the first-image and the second-image corresponding to the same scene, a common subject which is common between the images, and performs, on the corresponding image, color correction of making colors of the extracted common subject similar to each other.

Abstract: An image signal processor is provided. The image signal processor includes a white balancing block which performs white balancing on a raw RGB image of a Bayer pattern received from an image sensor on a kernel basis or in a kernel unit, a green generation block which performs cross-binning on white-balanced G pixel to generate a first green pixel, and adds a high-frequency component to which a preset weight is applied to generate a binned green pixel, a red-blue generation block which generates a U pixel and a V pixel indicating directionality, on the basis of the binned green pixel, a white-balanced R pixel, and a white-balanced B pixel, and merges the binned green pixel to each of the U pixel and the V pixel to generate a binned red pixel and a binned blue pixel and an inverse white balancing block which performs an inverse white balancing on the binned red pixel, the binned green pixel, and the binned blue pixel to output a final binning image.

Abstract: The present invention is directed to a system for photography comprising a light sensor configured to detect a flash from a strobe light and in response produce a sensor signal; a control unit operably coupled to a camera and a photography platform, the control unit configured to send a command to the camera for triggering the camera and the strobe light, capture a time at which the command is sent, receive the sensor signal from the light sensor, the sensor signal indicative of the flashing of the light source, determine a calibration value based on the difference between the time at which the sensor signal is received by the control unit and the time at which the command is sent to the camera by the control unit, and calibrate itself based on the calibration value.

Abstract: In an imaging apparatus, two pupils of a pupil division optical system transmits light of a first wavelength band and light of a second wavelength band. An amount of components of the first wavelength band in first transmittance characteristics and second transmittance characteristics is more than an amount of components of the second wavelength band in the first transmittance characteristics and the second transmittance characteristics. An amount of components of the second wavelength band in third transmittance characteristics is more than an amount of components of the first wavelength band in the third transmittance characteristics. A processor is configured to generate a color image including a first signal that is based on the first transmittance characteristics as a first channel and a second signal that is based on the second transmittance characteristics as a second channel and a third channel.

Abstract: Provided is a video imaging device in which, even if a camera module and an imaging device main body are connected only by one coaxial cable, a communication error does not occur between the camera module and the imaging device main body through the coaxial cable. A first superimposition circuit of the camera module superimposes imaging signals sequentially outputted from an imaging unit and imaging operation timing information thereof on a DC power voltage applied to the coaxial cable in a voltage stable period after a lapse of a voltage variation period that is set at a predetermined elapsed time from a time of the turn-on or -off control of the light source. Thus, imaging signals and imaging operation timing information thereof can be outputted to imaging device main body without being affected by variations in DC power voltage due to the turn-on or -off control of the light source.

Abstract: A stereo camera system for a driver assistance system includes a first camera having a first aperture angle and a second camera having a second aperture angle, wherein the first camera produces a wide-angle camera image, the second camera produces a telephoto camera image, and the two camera images have an area of overlap. The first camera is a rolling shutter camera and the second camera is a global shutter camera. The two cameras' shutters are synchronized with one another in particular manners.