Abstract: A computational pixel imaging device can include multiple digitizing counters per pixel that can be used to execute simultaneous signal-processing threads on acquired image data. The imaging device can also include infinite dynamic range sensing and perform signal down-sampling.

Abstract: Provided are an imaging apparatus, an imaging method, and a program that change a display form of a display unit in accordance with whether or not a display content of the display unit is visually recognizable. An imaging apparatus (10) includes a first display unit (13), and a processor (40), in which the processor (40) performs a determination process for determining whether or not a display content of the first display unit (13) is visually recognizable by a user, and a display control for displaying a first display including at least one of a captured image or a character in a case where it is determined through the determination process that the display content is visually recognizable, and for causing the first display unit (13) to display a second display that is a surface display in a case where it is not determined through the determination process that the display content is visually recognizable.

Abstract: Systems and techniques are provided for selecting a camera from a plurality of cameras. For example, a process can include obtaining an image from a camera. In some cases, the process can include determining a depth of field (DOF) range associated with a scene captured in the image. In some aspects, the process can include comparing the DOF range associated with the scene captured in the image with one or more DOF ranges of respective cameras of a plurality of cameras. In some examples, the process can include determining a selected camera from the plurality of cameras based on comparing the DOF range associated with the scene captured in the image with respective one or more DOF ranges of each camera of the plurality of cameras.

Abstract: A system and method for capturing media and for printing the captured media onto an article of merchandise. The system includes a mobile application that overlays one or more print dielines corresponding to the printable areas of one or more types of merchandise onto an associated camera display. In this way, the system provides, prior to the capturing of the photograph, a visual indication of the subject matter within the photograph (e.g., within the overlaid print dielines) that will be cropped and printed onto the merchandise. As such, a user may properly arrange the subject matter of the photograph (e.g., people) within the print dieline prior to capturing the photograph. The system subsequently communicates the portion of the photograph within the print dieline to a printing system to print the portion onto the merchandise. The system derives the print dielines from graphic files that correspond to the merchandises' printable areas.

Abstract: A photographing method includes: receiving a first operation for a target photographing template, wherein the target template includes N viewfinder frames, and N is an integer greater than 1; acquiring N photographing results through the N viewfinder frames, wherein the N photographing results include M photos and N-M videos, and M is a positive integer less than N; and splicing the N photographing results according to the positions of the N viewfinder frames in the target photographing template in a case of receiving a second operation to acquire a synthesized object.

Abstract: A charge voltage calibration system comprises a power supply, a light string, a driver, and a calibration circuit. The driver comprises a capacitor, a switch, and a sense resistor. The switch, sense resistor, and light string are coupled in series to form a discharge path coupled in parallel with the capacitor. The calibration circuit comprises a controller, a DAC, a comparator, a memory device. The controller is configured to control the DAC to provide a reference voltage to the comparator, cause the power converter to supply a first charge voltage to the driver, cause the switch to transition from an off state to an on state to discharge stored energy in the capacitor through the discharge path, and store a value of the first charge voltage in the memory device in response to detection of voltage generated across the sense resistor being greater than or equal to the reference voltage.

Abstract: An image sensor configured to capture imagery with mitigated noise includes a plurality of image sensing pixels arranged to form a sensor array. Each image sensing pixel of the plurality of image sensing pixels comprises an active area configured to receive photons to facilitate image capture. Each active area comprises a length and a width. For at least one image sensing pixel of the plurality of image sensing pixels, the length or the width of the active area is smaller than about 80% of a pixel pitch measurement between the at least one image sensing pixel and an adjacent image sensing pixel. A size of the active area relative to the pixel pitch measurement contributes to mitigating sensor noise for the image sensor.

Abstract: A camera apparatus includes a search unit configured to search for another camera apparatus connected to the camera apparatus via a network, and a display unit configured to display, on a terminal device, information related to a device connected to the another camera apparatus found by the search and an instruction area for issuing an instruction to display a video image that is generated by superimposing, on a video image captured by the another camera apparatus, the information related to the device connected to the another camera apparatus.

Abstract: An image pickup apparatus that eliminates manual change of an image pickup direction during an image picking up operation and can easily obtain an image that records experience while focusing attention on the experience. A detection unit is worn on a body part other than a head of a user. An image pickup unit is worn on a body of the user. A memory device stores instructions. A processor executes the instructions to: detect an observation direction of the user by the detection unit, pick up an image by the image pickup unit, output an image in an image recording frame corresponding to the observation direction, determine the image recording frame so that a part of the body of the user will not appear in an output image.

Abstract: A method for an apparatus includes setting, as a first setting, a first item relating to a type of a detection target, setting, as a second setting, a second item relating to an AF area, executing object detection processing on an object of the type set in the first setting, executing focus detection processing based on information about the AF area set in the second setting, and storing the settings as a combination of the set first item and the set second item, wherein the stored settings are called by a user through a specific operation, and the object detection processing and the focus detection processing are executed based on the called settings.

Abstract: In an electronic device, a memory temporarily holds image data output from an image sensor during a first operation instruction instructing preparation for shooting is output, and an acquisition unit repeatedly acquires determination information used for estimating a level of possibility that a second operation instruction for instructing recording of a shot image will be output. A controller controls image shooting and to hold image data in the memory by a first control if the level is a first level, and by a second control that can reduce power consumption if the level is a second level which is lower than the first level. When the second operation instruction is output, the image data of an image shot in response to the second operation instruction and the latest image data held in the memory are recorded on a recording medium.

Abstract: A display apparatus includes a display unit, an acquiring unit configured to acquire a captured image generated by capturing a displayed image, which is displayed by the display unit, by an image pickup apparatus, and a control unit configured to cause the display unit to display the captured image together with or instead of the displayed image. The control unit causes the display unit to stop displaying the captured image when the image pickup apparatus captures the displayed image.

Abstract: An image capturing apparatus comprises an image capturing device, a detection unit configured to detect the subject from the image captured by the image capturing device, a setting unit configured to set a plurality of focus detection frames inside the image based on a result of the detection by the detection unit, a focus detection unit configured to detect a focus state and reliability thereof in each of the plurality of focus detection frames; and a selection unit configured to select a main focus detection frame for performing focus adjustment based on results of the detections by the detection unit and the focus detection unit, wherein the selection unit is configured to cause a method of selecting the main focus detection frame to vary depending on a part of the subject detected by the detection unit.

Abstract: Systems, devices, and techniques related to selecting a key frame for burst image processing are discussed. Such techniques may include generating key frame scores for at least some frames of a multi-frame burst image capture such that the key frame scores include a combination of an image quality component, a shutter lag component, and a burst image processing latency component and selecting a frame having a maximum key frame score as the key frame.

Abstract: Image quality according to user preferences can be suitably reflected in an image capturing device (camera). A program causes a computer to function as an analysis-object image quality adjusting unit that generates an analysis-object image. The analysis-object image quality adjusting unit generates an adjusted analysis-object image used along with an analysis-object RAW image to decide an image quality settings parameter of a captured image acquired by an image capturing device. In this case, the adjusted analysis-object image is generated by performing image quality adjustment processing on an analysis-object RAW image that is different from an adjustment-object RAW image, on the basis of image quality adjustment information indicating an image quality adjustment value of image quality adjustment processing as to the adjustment-object RAW image.

Abstract: A portable apparatus for analyzing a plant specimen. A housing assembly defines a sensing volume and controls entry of ambient light into the sensing volume when the housing is closed. A specimen support positions a plant specimen within the sensing volume whereby light emitted from at least one light emitter is incident upon the plant specimen. An image sensor senses light from the at least one light emitter that has been incident on the plant specimen. A processor analyzes data obtained from the light sensor to assess one or more properties of the plant specimen. There may be more than one light emitter, e.g., a halogen lamp and LED array, and the apparatus may acquire images under more than one lighting condition. The apparatus may include a mechanism for moving the plant specimen relative to the optical path to take images at multiple regions of interest on the specimen.

Abstract: A method, apparatus, and a non-transitory computer-readable storage medium for processing a video are provided. A terminal determines a subject region of a video frame in a video and a background region. A target object is located in the subject region. The background region is a region of the video frame other than the subject region. The terminal overlays the subject region in at least one of a first video frame having the target object on at least one of a second video frame having the target object and generates a special effect frame including at least two subject regions in each of which the target object is located.

Abstract: An image processing device, which includes processing circuitry configured to cause the image processing device to first detect a first bad pixel based on first image data, correct the first bad pixel based on first values of first peripheral pixels in response to the first detection to obtain a first correction result, the first peripheral pixels being peripheral to the first bad pixel, second detect the first bad pixel and a second bad pixel based on the first image data, the second bad pixel being adjacent to the first bad pixel, correct the second bad pixel based on second values of second peripheral pixels to obtain a second correction result, the second peripheral pixels being peripheral to the second bad pixel, and correct the first bad pixel by using the first correction result stored in a buffer in response to the second detection.

Abstract: A method for filtering noise of lens operation is applicable to a controller being communicably connected with a video recorder. The method includes: sending, by the controller, a recording instruction configured to control the video recorder to perform a video recording and an audio recording; sending, by the controller, a lens operation instruction configured to control a lens of the video recorder to perform an operation; reading, by the controller, an inverted noise signal associated with the operation receiving, by the controller, an audio recording signal generated by the video recorder when the video recorder performs the operation; and synthesizing, by the controller, the audio recording signal and the inverted noise signal to output a synthesized audio signal.

Abstract: An electronic device, a method and a computer program product for selecting an active camera from among a front facing camera and at least one rear facing camera. The method includes capturing, via a front facing camera, an image stream containing a face of a user and determining, via a processor, an eye gaze direction of the user based on an image retrieved from the image stream. The eye gaze direction corresponds to a location where the user is looking. The method further includes in response to determining that the user is looking away from a front surface of an electronic device and towards a direction within a field of view of the at least one rear facing camera, selecting, as an active camera, a corresponding one of the at least one rear facing cameras with a field of view containing the location to which the user is looking.