Abstract: An apparatus is described. An embodiment of an apparatus comprises a stationary first camera; a second camera; and a mechanical coupling enabling a first and a second camera position, wherein the mechanical coupling enables the rotation of the second camera with respect to the stationary first camera; wherein in the first camera position the first camera and the second camera are orientated in substantially opposite directions, and in the second camera position the second camera is orientated in substantially the same direction as the stationary first camera.

Abstract: An omnidirectional camera is presented. The camera comprises: at least one lens coupled to an image sensor, a controller coupled to the image sensor, and a movement detection element coupled to the controller. The movement detection element is configured to detect a speed and direction of movement of the camera, the camera is configured to capture images via the at least one lens coupled to the image sensor, and the controller is configured to select a digital viewpoint in the captured images. A central point of the digital viewpoint is selected on the basis of direction of movement, and a field of view of the digital viewpoint is based on the speed of movement. A system and method are also presented.

Abstract: The present disclosure provides an image merging method. The image merging method includes the following step. First, the calibration unit is provided, wherein a calibration device of the calibration unit includes a plurality of known characteristic information. The calibration device is captured. A conversion relationship is created. A relationship of positions of the images is analysis according to the conversion relationship. The images are formed. In additional, an image merging device is provided.

Abstract: Embodiments of the present invention relate to a method for generating a microscopy representation of a three-dimensional sample having a lateral extension in the x and y directions. The method has the following steps: a) arranging the flat three-dimensional sample on a positioner; b) recording the sample by means of an imaging device to obtain a first microscopy picture of the sample having a first section; c) altering the perspective onto the two-dimensional sample in the z direction; d) recording the sample by means of the imaging device to obtain a second microscopy picture of the sample having a second section; e) determining change information which allows drawing conclusions as to the change in perspective in the z direction, using a difference between the first and second microscopy pictures; and f) merging the first and second microscopy pictures while considering the change information to obtain the microscopy panoramic representation.

Abstract: A wide-area image acquiring method which includes capturing a global image in a preset wide-area visual area, capturing at least two partial images whose definition is preset and that are in the preset wide-area visual area, where the global image covers at least an overlap portion of view ranges of the partial images in the preset wide-area visual area, and a sum of the view ranges of the at least two partial images is greater than or equal to a view range of the global image, determining, in the global image, positions of edges of the partial images, based on same shot objects in the partial images and the global image, and performing splice processing on the at least two partial images according to the positions of the edges, to obtain a composite wide-area image of the wide-area visual area.

Abstract: A method and apparatus for photographing a panoramic image. The method includes detecting a Motion Vector (MV) of a plurality of images captured through a photographing unit, selecting regions to be included in the panoramic image from the plurality of images, based on the MV, and generating the panoramic image including the selected regions.

Abstract: In general, the subject matter can be embodied in methods, systems, and program products for identifying, by a computing system and using first and second frames of a video, a transformation that indicates movement of a camera with respect to the frames. The computing system generates a modified transformation so that the transformation is less representative of recent movement. The computing system uses the transformation and the modified transformation to generate a second transformation. The computing system identifies an anticipated distortion that would be present in a stabilized version of the second frame. The computing system determines an amount by which to reduce a stabilizing effect. The computing system applies the second transformation to the second frame to stabilize the second frame, where the stabilizing effect has been reduced based on the determined amount by which to reduce the stabilizing effect.

Abstract: A method, system, and computer program product for stabilizing frames, the method comprising: receiving a frame sequence comprising three or more frames, including a current frame; determining salient feature points within the frames; matching the salient feature points between the frames; dropping salient feature points associated with advancing objects; dropping salient feature points associated with objects moving in shaking movements; computing a transformation between pairs of consecutive frames from amongst the at least three frames, based upon non-dropped salient feature points, thereby obtaining a multiplicity of transformations; determining a center position for the frames based upon the multiplicity of transformations; determining a stabilizing transformation from a current frame to the center position; and applying the stabilizing transformation to the current frame to obtain a stabilized frame.

Abstract: Provided is an image processing device including an acquisition unit configured to acquire information on an imaging position and an imaging direction in units of frame images that constitute a moving image obtained through capturing by an imaging unit, a converted image generation unit configured to generate converted images having different imaging directions for each frame image that constitutes the moving image based on the frame image itself and preceding and succeeding frame images of the frame image, an evaluation value calculation unit configured to calculate an evaluation value for each converted moving image constituted by combining the converted image and the original frame image, the evaluation value being used to evaluate a blur between the converted images or between the original frame images, and a selection unit configured to select a converted moving image with less blur based on an evaluation value calculated by the evaluation value calculation unit.

Abstract: Techniques are provided for implementing a camera display system with selective activation of one or more associated auxiliary camera units by a navigation device in wireless communication with the auxiliary camera units. The navigation device selectively activates auxiliary camera units when video data from the auxiliary camera unit is to be displayed on the navigation device. The navigation device transmit an activation signal that may be received by an auxiliary camera unit, which may transition to an active state and begin transmitting video data captured by the video camera to the navigation device. Selective activation of an auxiliary camera unit reduces the amount of energy consumed by the auxiliary video camera unit because it is not continuously capturing and transmitting video data to the navigation device. auxiliary camera units may be activated in response to a user input or automatically in response to triggering events.

Abstract: Devices and methods for capturing images are described herein. A processor may be configured to capture a first image. The processor may further be configured to determine a distance between a lens and an image sensor of the image capture device for capturing the first image. The processor may further be configured to determine a portion of the image sensor to use for the first image based on the determined distance in order to maintain a constant field of view for one or more images captured by the image capture device. The processor may further be configured to adjust the portion of the image sensor used for the first image based on the determined portion of the image sensor to generate an adjusted first image.

Abstract: An image pickup apparatus capable of performing a zooming function without increasing a thickness of the image pickup apparatus, and obtaining depth information at the same time by using lens elements having different diameters, is provided. The image pickup apparatus includes lens elements, and image pickup regions respectively disposed in correspondence to the lens elements. At least two of the lens elements have different diameters. At least two of the image pickup regions have different sizes. A smallest image pickup region among the image pickup regions having a smallest size among sizes of the image pickup regions is disposed with respect to a lens element among the lens elements having a largest diameter. A largest image pickup region among the image pickup regions having a largest size among sizes of the image pickup regions is disposed with respect to a lens element among the lens elements having a smallest diameter.

Abstract: An arrangement of cameras and method for televising a baseball game includes first and second cameras positioned equidistant from home plate and first and third bases, the camera height above the playing field and the camera distance from the first and third baselines being chosen so that a ray to each camera, from an origin at the midpoint between the bases opposite the baseball diamond from that camera, rises at between 3.7 degrees and 7.9 degrees above horizontal. Alternatively, the ray rises at between 3.7 degrees and 6.1 degrees above horizontal. Distance, height, or both in combination are manipulated, within the structural constraints of the venue, to achieve this angle. The first or second camera is selected when a ball is hit. Third and subsequent cameras are subsequently selected, and the first and second camera may be re-framed and subsequently re-selected, in accordance with predetermined rules.

Abstract: The present disclosure relates to the field of display technology, and provides a video image mosaic system and a video image mosaic method. The video image mosaic system comprises an image signal source, an FPGA at least including image receivers, image scalars and image transmitters, and a DDR. The image signal source is connected to the image receivers, the DDR is connected to the image receivers and the image scalars, and the image scalars are connected to the image transmitters respectively.

Abstract: A composite image creating apparatus includes: an image determining unit that determines a specific subject in the first video; a boundary setting unit that sets a boundary that divides a screen of the first video into a specific range and a non-specific range, the specific range including the specific subject, the non-specific range not including the specific subject; a display control unit that displays the boundary when the second video is photographed; and a combining unit that combines an image within the specific range in the first video with an image within a range in the second video that corresponds to the non-specific range so as to create a composite image.

Abstract: A system and method include a first subsystem that includes at least one image capture device configured to capture a plurality of image captures of a visual scene and to generate first image information associated with at least one of the plurality of image captures. A second subsystem includes at least one image-related device positioned offset of at least one image capture device and is configured to capture information associated with the visual scene. At least one processor is configured to communicate with at least one image-related device of the second subsystem, correlate information received from at least one image-related device of the second subsystem with at least some of the first image information; and generate image presentation information as a function of the correlated information; wherein the generated image presentation information is usable to present an altered version of at least one of the plurality of image captures.

Abstract: Two parties have three distinct viewpoints of their relationship, from which assumptions emerge and working hypotheses about how to manage their relationship. The system, device, and method described herein include using a mobile device for understanding face-to-face human interactions. The process includes using a mobile device for recording an interaction with one or more other persons, whereby one or more of the participants use the mobile device to describe their viewpoints of the interaction. The participants can use the mobile device to receive immediate feedback for analysis, to compare viewpoints, to examine how the viewpoints are arrived, and to explore the viewpoints' consequences for the participants' relationship.

Abstract: A method and an apparatus for controlling video content displayed to a viewer are presented. The method includes receiving video stream of a video. Two or more areas of interest are identified in a segment of the video stream and a display priority for each area of interest is determined. The method includes facilitating display of concurrently occurring portions of the segment if the display priority for the each area of interest is equal and the areas of interest can be simultaneously presented in a single view on a display screen. The concurrently occurring portions are displayed in a split screen arrangement if the areas of interest cannot be simultaneously presented in the single view. The portions of the segment related to one or more areas of interest are displayed based on an order of the display priority if the display priority for the each area of interest is unequal.

Abstract: In one aspect the present application provides a hybrid and/or tandem application of image capture settings, including a selectable (preferably) number of images used to create a selective final resolution image(s), and selectively the number of information groups created from other information captured to inform positional aspects of those image portion captures/images.

Abstract: An apparatus for communicating with an external apparatus through a network includes an image capture unit configured to capture an image of a subject, a superimposing unit configured to superimpose a character upon the captured image, a reception unit configured to receive color information indicating a color relating to the superimposed character, and a setting unit configured to set an outline color of the superimposed character based on the received color information.

Abstract: In various exemplary embodiments, optically sensitive devices comprise a plurality of pixel regions. Each pixel region includes an optically sensitive layer over a substrate and has subpixel regions for separate wavebands. A pixel circuit comprises a charge store and a read out circuit for each subpixel region. Circuitry is configured to select a plurality of subpixel elements from different pixels that correspond to the same waveband for simultaneous reading to a shared read out circuit.

Abstract: Disclosed is an image sensor in which a redundant member is appropriately provided, and an image capture apparatus using this image sensor. The image sensor has a memory that performs A/D conversion on a read pixel signal and holds this signal. The memory includes a first memory unit for holding a first pixel signal in pixel signals, and a second memory unit for holding a second pixel signal. Larger redundant storage capacity is provided in the first memory than in the second memory.

Abstract: A method and device for capturing a mixed structured-light image and regular image using an integrated image sensor are disclosed, where the structured-light image is captured using a shorter frame period than the regular image. In order to achieve a shorter frame period for the structured-light image, the structured-light image may correspond to an image captured with reduced dynamic range, reduced spatial resolution, or a combination of them. The capturing process comprises applying reset signals to a pixel array to reset rows of pixels of the pixel array, reading-out analog signals from the rows of pixels of the pixel array and converting the analog signals from the rows of pixels of the pixel array into digital outputs for the image using one or more analog-to-digital converters.

Abstract: A photoelectric conversion device according to an exemplary embodiment includes a pixel which includes a photoelectric conversion unit, a reset transistor, and an amplifier transistor that outputs a signal from the photoelectric conversion unit. The photoelectric conversion unit includes a first electrode, a second electrode, a photoelectric conversion layer, and an insulating layer disposed between the photoelectric conversion layer and the second electrode. The photoelectric conversion unit alternately performs an accumulation operation and a discharge operation in accordance with the voltage between the first electrode and the second electrode. In a period between two consecutive discharge operations among a plurality of discharge operations, a reset operation in which the reset transistor resets the voltage on the second electrode is performed a plurality of times.

Abstract: The present technology relates to an image sensor, an imaging method, and an electronic apparatus that are capable of improving the image quality. It includes a plurality of signal lines for reading signals from pixels including a photoelectric conversion element, each of the plurality of signal lines being provided for one column of pixels, and a fixing unit configured to fix the potential of the plurality of signal lines to a predetermined potential, is started. The fixing unit fixes the potential of the plurality of signal lines before an operation of resetting the pixel. It is possible to fix the potential of the signal line to a predetermined potential before reading of the signal from the pixel, and to prevent the image quality from degrading due to the discrepancy in the potential when reading is started.

Abstract: An image sensor may include an array of image sensor pixels. Each pixel may have a photodiode, a floating diffusion node, and a charge transferring transistor. The charge transferring transistor may be a dual gate transistor having first and second gate terminals. A suitable bias may be applied to the second gate terminal to alter the capacitance of the floating diffusion node. The amount of electrons that may be accommodated by the floating diffusion node may be altered with application of a varying voltage level bias at the second gate terminal. By implementing a dual gate transistor, dynamic range compression and anti-blooming charge overflow may be implemented directly in the pixel to reduce image sensor pixel size and cost.

Abstract: An image processing method and a camera are provided to implement that a relative position of an intelligent analysis rule relative to a corresponding reference object can remain unchanged when a camera with a pan tilt zoom (PTZ) function is rotated and/or zooms in/out. The method includes receiving an image operation instruction, where the image operation instruction includes performing at least one of a rotation operation or a zoom operation, performing an operation on an image according to the image operation instruction, where the image is overlaid with a rule which is a tripwire or a geometric region and includes a reference object, and displaying the rule on the image on which the operation has been performed such that a relative position of the rule relative to the reference object remains unchanged before and after the operation.

Abstract: Left and right sides in the television are provided symmetrically with independent sound boxes. Each sound box comprises a box body and a loudspeaker group, a front passive radiator and a rear passive radiator that are located in the box body. The front passive radiator is installed on the front box wall of the box body. The loudspeaker group installed on the front box wall is disposed on one side or left and right sides of the front passive radiator. The rear passive radiator is installed on the rear box wall, opposite to the front box wall, of the box body, and the rear passive radiator corresponds to the front passive radiator. The bass vibrating membrane area is exponentially increased through dual membrane symmetric resonance; and through the resonance, the bass effects are dramatically enhanced, the perfect reproduction of the whole tone frequency domain is achieved.

Abstract: A video recording device, holster and article of clothing are disclosed to reliably and covertly provide for the capture of video, audio, and metadata, and perform other commands. The holster may be provided with a carrier that is, in turn, inserted into the holster. In one embodiment, the holster may be confirmed as being associated with the video recording device to authenticate a user, and establishes a docked position. Moreover, the video recording device may enter a mode of operation associated with using the video recording apparatus automatically when inserted into a holster.

Abstract: An image pickup apparatus includes a comparison light composition section that composes a comparison light image from image data of a plurality of frames, a number-of-replacement-target-frames calculating section for performing, on the comparison light image, for each of partial regions, at least one of deviation correction for a black level attributable to dark random noise with respect to black level subtraction processing of an OB-value subtracting section and correction for deviation of a pixel value attributable to light random noise by a pixel-gain correcting section, a dark-random-noise-tendency determining section, and a light-random-noise-correction-amount calculating section.

Abstract: An electronic device and a method for recording a content execution screen are disclosed. The electronic device includes a memory and a processor electrically connected to the memory. The processor is configured to control for executing content, confirming at least one part of the content, and recording the at least one part of the content in association with a haptic effect.

Abstract: A display system includes a display device and an HDMI dongle electrically connected to the display device. The display device includes a first transmission interface, a first control module, and a power supply module. The HDMI dongle includes a second transmission interface and a second control module. The first and the second transmission interfaces include transmission pins corresponding to each other. The first control module detects voltage of one pin to obtain matching state between the display device and the HDMI dongle and outputs an enabling signal. When the HDMI dongle matches the display device, the enabling signal controls the power supply module to transmit the power supply signal to the second control module through the first and the second transmission interfaces for charging the second control module. When the HDMI dongle does not match the display device, the power supply module is not transmitted to the second control module.

Abstract: One embodiment relates to an electronic apparatus including a video processor and a video interface controller. The video processor transmits first uncompressed video data and high dynamic range (HDR) information in a first transmission format. The HDR information is associated with each video frame of the first uncompressed video data. The first transmission format includes a first non-blanking region in each video frame. The video interface controller receives the first uncompressed video data and the HDR information from the video processor in the first transmission format. The video interface controller transmits second uncompressed video data and the HDR information to an external device in a second transmission format. The second uncompressed video data corresponds to the first uncompressed video data. The second transmission format includes a second non-blanking region in each video frame, and the first non-blanking region is larger than the second non-blanking region.

Abstract: Disclosed is a system and method for providing two-way audio and video communications in a remote customer assistance environment. Upon initiation of an audio communications session using an audio server, separate video communications are established between the devices in a customer terminal and a remote attendant workstation. The dial plan of the audio server may used to add additional information to the incoming audio call request for use by the attendant workstation in initiating the video communications sessions.

Abstract: To transmit content data to a second terminal while transmitting content data to a first terminal, a management system includes a receiver configured to receive a request sent from a first terminal for establishing a first session between the first terminal and a second terminal, and a session controller configured to send the request for establishing the first session to the second terminal while a second session, other than the first session, is underway between the first terminal and a third terminal, upon receiving the request for establishing the first session.

Abstract: A method of facilitating a multi-participant communication session with an efficient use of network bandwidth and processing resources is described. The processing resources are made available to the session participants via a switching fabric and composites of less active session participants can be used to minimize the bandwidth utilization between a media server and endpoints.

Abstract: Generally this disclosure describes a video communication system that replaces actual live images of the participating users with animated avatars. A method may include selecting an avatar; initiating communication; detecting a user input; identifying the user input; identifying an animation command based on the user input; generating avatar parameters; and transmitting at least one of the animation command and the avatar parameters.

Abstract: Generally this disclosure describes a video communication system that replaces actual live images of the participating users with animated avatars. A method may include selecting an avatar, initiating communication, capturing an image, detecting a face in the image, extracting features from the face, converting the facial features to avatar parameters, and transmitting at least one of the avatar selection or avatar parameters.

Abstract: Generally this disclosure describes a video communication system that replaces actual live images of the participating users with animated avatars. A method may include selecting an avatar, initiating communication, capturing an image, detecting a face in the image, extracting features from the face, converting the facial features to avatar parameters, and transmitting at least one of the avatar selection or avatar parameters.

Abstract: Technologies are generally described for identification of recorded image data. In various examples, a mobile device may include a receiver, a memory and a processor. The receiver may be configured to receive a signal transmission from a surveillance apparatus located proximate to the mobile device, and the signal transmission from the surveillance apparatus includes a camera ID. The processor may be configured to coordinate operation of the receiver and the memory to: store the camera ID received from the receiver in association with a timestamp in the memory; receive a request to identify at least one camera ID associated with a user specified criteria; and identify one or more camera IDs that substantially match the user specified criteria.

Abstract: An image sensor includes a sensing layer for sensing a light beam and a number of pixel groups. Each of the pixel groups includes a yellow filter unit allowing a green light component and a red light component of the light beam to pass through, a green filter unit allowing the green light component of the light beam to pass through, and a blue filter unit allowing a blue light component of the light beam to pass through.

Abstract: A device for displaying an image sequence in the form of a pixel matrix, includes a control unit coupled to a projector. The control unit includes an input interface designed to receive asynchronous information representing, for each pixel of the matrix, events concerning the pixel, and a processor designed to control the activation of each pixel of the matrix at moments determined by the respective events indicated by the asynchronous information for the pixel. The projector is disposed on a support so as to illuminate the light receptors of the eye when the device is in use and is designed to project a light flux corresponding to the pixels activated by the control unit.

Abstract: The disclosure provides a fluorescent wheel, including a fluorescent region and a transmission region; the fluorescent region has fluorescence powder for emitting fluorescence under excitation by excitation laser; and the transmission region is for transmitting laser; the fluorescent wheel is for diffusing at least laser to be transmitted. Using fluorescent wheel to diffuse laser enables laser transmission meanwhile removing speckles by diffusion, sparing a separate speckle-removing component, improving light processing efficiency of fluorescent wheel.

Abstract: The disclosure discloses a light source assembly and a laser projector. An embodiment of the disclosure provides a light source assembly including a laser light emitter in at least one color, and a light guiding element arranged in a light path over which a light beam of the laser light emitter is transmitted; the light guiding element is configured to be moved to change the emergent angle of laser light beam being transmitted, thus adjusting the light path conveniently.

Abstract: Embodiments of this disclosure disclose a method for processing a projection image, including: obtaining an image to be projected, with a first resolution; adjusting the resolution of the image to be projected, according to a second resolution supported by a projection display device, to obtain a first image with a third resolution, number of pixels in the row direction of an image with the third resolution is N times number of pixels in the row direction of an image with the second resolution, and number of pixels in the column direction of the image with the third resolution is M times number of pixels in the column direction of the image with the second resolution; dividing the first image into pixel blocks, integrating pixels in the pixel blocks, to obtain a second image and a third image; and projecting the second image and the third image alternately.

Abstract: According to an aspect, a device includes a camera configured to obtain an image, an electromagnetic radiation sensor configured to produce at least one of ultra-violet (UV) light data and infrared (IR) light data associated with the image, a sensor processor configured to detect an illuminant type probability from probability data using at least one of the UV light data and the IR light data, where the illuminant type probability indicates a level of confidence that a light source associated with the image is a particular illuminant type, and an auto-white balance unit configured to adjust auto-white balance with the illuminant type probability.

Abstract: An image pickup apparatus is an image pickup apparatus capable of acquiring an image of an object in gas and in liquid, the image pickup apparatus including: an image pickup optical system; an image pickup device; a controlling portion configured to make an in-gas judgment if a vignetting portion is detected in an image signal and make an in-liquid judgment if a vignetting portion is not detected in the image signal; and a display data generating portion configured to generate certain display data corresponding to in-gas image pickup if the in-gas judgment is made and generate other display data corresponding to in-liquid image pickup if the in-liquid judgment is made.

Abstract: Examples of the disclosure accurately define a gray region for automatic white balancing. Ratios corresponding to possible gray areas are white balanced before color distance metrics are calculated with respect to white points under different light sources. The color distance metrics of each point in the image data are compared with a predetermined threshold value to identify a gray region. Gray points within a captured image are identified using the gray region and input to any AWB method to accurately white balance the captured image.

Abstract: Use of separate range tone mapping for combined images can help minimize loss of image information in scenes that have drastically different luminance values, i.e., scenes that have both bright and shadowed regions. Separate range tone mapping is particularly useful for combined images, such as those from spherical camera systems, which may have a higher probability of including luminance variability. The resulting increased bit depth of separate range tone mapping can make the transition between different images that make up a combined image more subtle. Each of a plurality of images that make up a combined image can use a different tone map that is optimized for the particular image data of the image. Multiple tone maps that are applied to overlapping regions of the plurality of images can subsequently be combined to expand the bit depth of the overlapping regions.

Abstract: A camera system includes a first microphone, a second microphone, and a microphone controller. The first microphone and the second microphone are configured to capture audio over a time interval to produce a first captured audio signal and a second captured audio signal, respectively. The second captured audio signal is dampened relative to the first captured audio signal by a dampening factor. The microphone controller is configured to store the first captured audio signal in response to a determination that the first captured audio signal does not clip. In response to a determination that the first captured audio signal clips, the microphone controller is configured to identify a gain between the first captured audio signal and the second captured audio signal representative of the dampening factor, amplify the second captured audio signal based on the identified gain, and store the amplified second captured audio signal.