Abstract: Disclosed are an image capture scene recognition control method and apparatus and an image capture device. The method comprises the following steps: obtaining a preview image of a current image capture scene collected by an image capture device; extracting a brightness component of the preview image, and obtaining brightness component information of the preview image; obtaining a distribution estimation of the brightness component information and a desired ideal brightness distribution; determining the relative entropy between the distribution estimation of the brightness component information and the desired ideal brightness distribution; according to the relative entropy, determining whether the current image capture scene is a shaded image capture scene; when determined that the current image capture scene is a shaded image capture scene, controlling the image capture device such that the light source of the image capture device compensates the light source in the shaded image capture scene.

Abstract: Correlated double sampling column-level readout of an image sensor pixel (e.g., a CMOS image sensor) may be provided by a charge transfer amplifier that is configured and operated to itself provide for both correlated-double-sampling and amplification of floating diffusion potentials read out from the pixel onto a column bus after reset of the floating diffusion (i) but before transferring photocharge to the floating diffusion (the reset potential) and (ii) after transferring photocharge to the floating diffusion (the transfer potential). A common capacitor of the charge transfer amplifier may sample both the reset potential and the transfer potential such that a change in potential (and corresponding charge change) on the capacitor represents the difference between the transfer potential and reset potential, and the magnitude of this change is amplified by the charge change being transferred between the common capacitor and a second capacitor selectively coupled to the common capacitor.

Abstract: An imaging apparatus, which can be mounted with an interchangeable lens and operates with power from a battery, includes: a connection detachably connected to the interchangeable lens; a controller that controls a lower-limit voltage indicating a lower limit for supplying power from the battery; and a selector that selects one operation mode from a plurality of operation modes for operating the imaging apparatus with power from the battery, wherein the controller switches the lower-limit voltage among a plurality of set values respectively corresponding to combinations of types of the interchangeable lens and the plurality of operation modes on a basis of the interchangeable lens connected to the connection and the operation mode selected by the selector.

Abstract: An electronic device includes a UDC and a UDC controller configured to determine an optimal number of frames required to be captured for a scene to compensate at least one parameter to optimize an output media using the UDC, obtain a multi-frame fusion media by performing at least one multi-frame fusion on the determined optimal number of frames, perform a light source spread correction on the multi-frame fusion media, and optimize the output media based on the light source spread correction on the multi-frame fusion media.

Abstract: An image capturing apparatus includes an image capturing element, a fan, a foreign substance removal unit, and a control unit. The fan generates airflow for cooling the image capturing element. The foreign substance removal unit removes a foreign substance from an exposure surface of the image capturing element on an object side of an imaging plane. The control unit operates the foreign substance removal unit to remove a foreign substance adhered to the exposure surface after driving the fan.

Abstract: A method by an electronic device is provided. The method includes identifying, by the electronic device, brightness information corresponding to each of a plurality of Internet of Things (IoT) light devices, categorizing, by the electronic device, the plurality of IoT light devices into at least one category based on the brightness information of each IoT light device of the plurality of IoT light devices and location information of each IoT light device of the plurality of IoT light devices, receiving, by the electronic device, a user input selecting a lighting effect from a plurality of lighting effects and an effect level, and updating, by the electronic device, information on the at least one category of the plurality of IoT light devices based on the lighting effect, the effect level and the brightness information.

Abstract: An in-vehicle electronic device includes a host, a first camera, and a first driving device. The first camera is moveably connected to the host, and is configured to capture at least one image of an interior of a vehicle. The first driving device is connected to the first camera, and is configured to drive the first camera to slide between an extended position and a retracted position, so that when the first camera is at the extended position, the first camera is located outside the host, and when the first camera is at the retracted position, the first camera is located inside the host.

Abstract: An imaging system is provided for a vehicle. In one implementation, the imaging system includes an imaging module, a first camera coupled to the imaging module, a second camera coupled to the imaging module, and a mounting assembly configured to attach the imaging module to the vehicle such that the first and second camera face outward with respect to the vehicle. The first camera has a first field of view and a first optical axis, and the second camera has a second field of view and a second optical axis. The first optical axis crosses the second optical axis in at least one crossing point of a crossing plane. The first camera is focused a first horizontal distance beyond the crossing point of the crossing plane and the second camera is focused a second horizontal distance beyond the crossing point of the crossing plane.

Abstract: An image pickup apparatus includes a sensor configured to pick up a plurality of images different in in-focus position in an optical axis direction, an adjustment unit configured to adjust a parameter relating to image pickup to correct influence caused by an effective F-number varied depending on an in-focus position when at least a part of the plurality of images is picked up, and a synthesis unit configured to synthesize the plurality of images.

Abstract: Techniques are generally described for color filter array interpolation of image data. A first frame of image data representing a plurality of pixels arranged in a grid may be received. A low pass filter may be used to generate a first luminance value for a first non-green pixel of the plurality of pixels. A first chrominance value of the first non-green pixel may be determined based at least in part on a combination of at least a chrominance value of a first green pixel located adjacent to the first non-green pixel and a chrominance value of a second green pixel located adjacent to the first non-green pixel. A second luminance value for the first non-green pixel may be determined based on a combination of the first chrominance value and the first luminance value. Output values for the first non-green pixel may be determined based at least in part on the second luminance value.

Abstract: There is provided with an image-processing apparatus for indicating a range, which is displayed by a device or a system comprising a display area for displaying an image, within an input image. A first obtaining unit obtains information that represents a display form of the device or the system comprising the display area. A second obtaining unit obtains input image data representing the input image. An identification unit identifies the range, which is displayed in the display area, within the input image based on the input image data and the information. An output unit outputs information that represents the identified range. A shape of the identified range depends on the display area that corresponds to at least a curved screen or a plurality of flat screens.

Abstract: The disclosure relates to a camera module, a control method and apparatus, an electronic device and a storage medium. The camera module includes a camera, the camera includes a lens and a photosensitive element, and the camera module further includes an optical filter assembly. An optical filter in the optical filter assembly and the lens are parallel and located on different planes, and when the optical filter is in a filtered state, the optical filter is located on one side of the photosensitive element facing the lens for reducing an intensity of light entering the photosensitive element.

Abstract: Various embodiments of the present technology may provide methods and apparatus for a track-and-hold amplifier configured to sample and amplify an analog signal. Methods and apparatus for a track-and-hold amplifier according to various aspects of the present invention may provide an isolation circuit configured to isolate transient current in a track-and-hold capacitor during a track phase. According to various embodiments, selective activation of the isolation circuit provides a settling time that is independent of the gain of the amplifier.

Abstract: An information processing apparatus (10) includes: a deciding unit configured to decide alignment information to be used for alignment between a first image captured by a first imaging device and a second image captured by a second imaging device having an angle of view wider than an angle of view of the first imaging device, on the basis of imaging-related information related to imaging performed by the first imaging device; and an outputting unit configured to output the alignment information.

Abstract: An imaging system includes first camera; second camera, second field of view of second camera being wider than first field of view of first camera, wherein first field of view overlaps with portion of second field of view; and processor(s) configured to: capture first images and second images, wherein overlapping image segment and non-overlapping image segment of second image correspond to said portion and remaining portion of second field of view; determine blurred region(s) (B1, B2) of first image; and generate output image in manner that: inner image segment of output image is generated from: region(s) of overlapping image segment that corresponds to blurred region(s) of first image, and remaining region of first image that is not blurred, and peripheral image segment of output image is generated from non-overlapping image segment.

Abstract: Provided is an image processing apparatus (200), comprising: a communicating unit (202) capable of communicating with each of a plurality of image sensors configured to transmit, in respectively different packets, additional data including region information corresponding to a region set with respect to a captured image for each region and region image data indicating an image for each row corresponding to the region; and a processing unit (204) configured to process, in association with each region, the region image data acquired from each of the plurality of image sensors based on the region information included in the additional data acquired from each of the plurality of image sensors, wherein the region information includes a part of or all of identification information of the region, information indicating a position of the region, and information indicating a size of the region.

Abstract: An image sensor includes: a first pixel connected to a column line; and a second pixel connected to the column line. Each of the first pixel and the second pixel includes: one photodiode; a first floating diffusion region; a second floating diffusion region; one first transistor connected between the one photodiode and the first floating diffusion region; a second transistor connected between the first floating diffusion region and the second floating diffusion region; a third transistor connected to the second floating diffusion region; a fourth transistor including a gate connected to the first floating diffusion region; and a fifth transistor including a drain connected to a source of the fourth transistor and a source connected to the column line. The second floating diffusion region of the first pixel and the second floating diffusion region of the second pixel are electrically connected without an intermediate transistor.

Abstract: The present disclosure provides an image device. The image device may include a camera lens, one or more stepper motors to drive the camera lens, one or more H-bridge circuits configured to control at least one of the one or more stepper motors, and a lens-identification circuit connected with the one or more H-bridge circuits, wherein the lens-identification circuit includes an impedance network of which an impedance value corresponds to a type of the camera lens.

Abstract: The present application discloses a camera module that includes a base, a guide shaft, a first piezo assembly, a second piezo assembly, a first optical assembly, and a second optical assembly. The first piezo assembly includes a first stator and a first driven element. The first stator includes a first piezo element and a first fixing element. A first cantilever of the first fixing element is configured to amplify vibration generated by the first piezo element in an energized state, and cooperate with the first driven element to drive the first optical assembly to slide. The second piezo assembly includes a second stator and a second driven element, and the second stator includes a second piezo element and a second fixing element. A second cantilever of the second fixing element cooperates with the second driven element to drive the second optical assembly to slide.

Abstract: An optical system, a lens module, and an electronic device are provide. The optical system includes, in order from an object side to an image side along an optical axis, a first lens with a positive refractive power, a second lens with a negative refractive power, a third lens with a refractive power, a fourth lens with a refractive power, a fifth lens with a refractive power, a sixth lens with a refractive power, and a seventh lens with a negative refractive power. The optical system further includes a stop, and the optical system satisfies the following expression: 1.5<TTL/D<2.5.