Abstract: There is provided an information processing device including a display control unit configured to display pieces of content at a first position of a screen, a condition setting unit configured to set a clustering condition for the pieces of content in accordance with a user operation, and a clustering unit configured to classify the pieces of content into a cluster in accordance with the clustering condition. The display control unit moves a display of the pieces of content from the first position toward a second position corresponding to the cluster.

Abstract: The present invention relates to a providing a method and/or an apparatus for transceiving a broadcast signal for a panorama broadcast service. The method for transmitting a broadcast signal, according to one embodiment of the present invention, comprises the steps of: encoding an image, multiplexing into a single broadcast stream, the encoded image and signaling information related to the image, wherein the signaling information includes signaling information related to a panoramic image; generating a broadcast signal including the multiplex broadcast stream; and transmitting the generated broadcast signal.

Abstract: The present invention relates to a system and method for capturing video of a real-world scene over a field of view that may exceed the field of view of a user, manipulating the captured video, and then stereoscopically displaying the manipulated image to the user in a head mounted display to create a virtual environment having length, width, and depth in the image. By capturing and manipulating video for a field of view that exceeds the field of view of the user, the system and method can quickly respond to movement by the user to update the display allowing the user to look and pan around, i.e., navigate, inside the three-dimensional virtual environment.

Abstract: The present technology relates to an image processing apparatus and a method capable of performing calibration of a correction amount in brightness correction more easily. The image processing apparatus according to the present technology performs blending calculation for correcting brightness of an image in accordance with a distance from a projection unit configured to project the image to a projection surface onto which the image is projected, and in accordance with a characteristic of the projection unit. The present technology can be applied, for example, to a projector, a camera, or an electronic apparatus including both function of a projector and a camera, a computer that controls these, and to a system in which an apparatuses having a projector and a camera are operating in cooperation.

Abstract: This invention overcomes disadvantages of the prior art by providing a system and method that allows for the calibration of a display system using one or more cameras whose lenses are not modeled, or are modeled with limited accuracy, and are potentially incapable of imaging the entire projector system. The illustrative system and method generally relies on well-established models of the projectors, rather than well-established models of the cameras. Illustratively, the cameras serve mainly to map the projectors into one coordinate system, where the overlap between the projectors can be established very precisely using a camera, even if the model of the camera lens properties is not known, or known only minimally.

Abstract: A projector according to the present disclosure includes: a projection unit, a lens unit, an imaging unit, and a computing unit. The projection unit displays a first image. The lens unit projects the first image that is displayed by the projection unit. The imaging unit images a second image, which is projected by another projector, through the lens unit. The computing unit computes a distance between a surface on which the second image is projected and the another projector. Such the distance is computed from imaging data of the second image imaged by the imaging unit, and from spacing information on a spacing between the projector concerned and the another projector.

Abstract: A method includes receiving a first image and a plurality of other images of a planar surface of a specimen. The method also includes identifying first scale-invariant features in the first image. The first scale-invariant features are based on a scale-invariant feature transform of the first image. The method includes storing the first scale-invariant features in a grouping. The method includes, for each respective image of the plurality of other images, identifying scale-invariant features based on a scale-invariant feature transform of the respective image; matching the scale-invariant features to the grouping; based on the matching, determining a planar homography of the respective image with respect to the grouping; and adding the scale-invariant features of the respective image to the grouping. The method also includes stitching the first image and the plurality of other images into a composite image based on the planar homographies.

Abstract: In graphics processing data is received representing one or more vertices for a scene in a virtual space. Primitive assembly is performed on the vertices to compute projections of the vertices from virtual space onto a viewport of the scene in a screen space of a display device containing a plurality of pixels, the plurality of pixels being subdivided into a plurality of subsections. Scan conversion determines which pixels of the plurality of pixels are part of each primitive that has been converted to screen space coordinates. Coarse rasterization for each primitive determines which subsection or subsections the primitive overlaps. Metadata associated with the subsection a primitive overlaps determines a pixel resolution for the subsection. The metadata is used in processing pixels for the subsection to generate final pixel values for the viewport of the scene that is displayed on the display device in such a way that parts of the scene in two different subsections have different pixel resolution.

Abstract: Disclosed herein is a method of correcting the distortion of an image overlap area. The method includes identifying an overlap area between images projected by a plurality of projectors, obtaining information about the brightness of an image projected on the overlap area, and controlling the brightness of the image projected on the overlap area. Controlling the brightness of the image includes incorporating a transparency variable ? into the image, and the transparency variable of an image projected by a specific projector is reduced toward remaining boundaries of the overlap area at a boundary of a non-overlap area and the overlap area.

Abstract: The present invention provides an image processing device whereby the probability of outputting a restored image which accurately corresponds to an original image which is included in a low-quality input image is improved. This image processing device comprises: an image group generating means for generating, from the input image, using a dictionary which stores a plurality of patch pairs wherein a degradation patch which is a patch of a degraded image wherein a prescribed image is degraded is associated with a restoration patch which is a patch of this prescribed image, a plurality of restored image candidates including a plurality of different instances of content which have a possibility of being the original content of the input image; and an image selection presentation means for clustering the generated plurality of restored image candidates, and selecting and outputting an image candidate on the basis of the result of this clustering.

Abstract: A projection system for projecting an image onto a projection body by a plurality of projection devices, includes an image preparation unit configured to prepare a plurality of imaging images for calibration, a grid point extraction unit configured to extract a set of grid points that indicates a distortion of a projection image for at least one projection device from each of the plurality of imaging images for calibration, a grid point transformation unit configured to execute a transformation between a plurality of images that are imaged in different imaging ranges on the plurality of imaging images for calibration in such a manner that each set of the grid points that are commonly extracted for a subject projection device is provided in a common coordinate system, a grid point synthesis unit configured to produce a set of the grid points that are synthesized for a subject projection device based on a plurality of sets of the grid points in the common coordinate system, and a correction coefficient calculat

Abstract: A spherical content capture system captures spherical video content. A spherical video sharing platform enables users to share the captured spherical content and enables users to access spherical content shared by other users. In one embodiment, captured metadata or video/audio processing is used to identify content relevant to a particular user based on time and location information. The platform can then generate an output video from one or more shared spherical content files relevant to the user. The output video may include a non-spherical reduced field of view such as those commonly associated with conventional camera systems. Particularly, relevant sub-frames having a reduced field of view may be extracted from each frame of spherical video to generate an output video that tracks a particular individual or object of interest.

Abstract: A projection image display system which forms an image on a projection plane with plural images includes a first projection-type display apparatus, a second projection-type display apparatus, a first-controller configured to control the first projection-type display apparatus to display a guide figure when a projectable region does not contain an assigned projection region for the first projection-type display apparatus, a second controller configured to control the second projection-type display apparatus to display a reference figure when a projectable region contains an assigned projection region for the second projection-type display apparatus. The guide figure is a figure to be referenced by a user for adjusting the position of the first projection-type display apparatus. The reference figure is a figure to be referenced by the user, as a norm for the position adjustment, in combination with the guide figure.

Abstract: A display calibration system may be used to calibrate a display. The display calibration system may have an image sensor that captures images of the display. An electrically controllable tunable filter such as an electrically tunable liquid crystal birefringence cell filter may be used to produce various wavelength-dependent filter characteristics in accordance with a variety of different filter settings. Control circuitry in the display calibration system may be used to adjust the filter to implement one or more color matching functions or to produce other desired filter characteristics for the display calibration system. The image sensor may measure light emitted from the display while the control circuitry is adjusting the filter. The control circuitry may then process the measured light to produce calibration data for the display. The calibration data may be loaded into the display by the control circuitry to calibrate the display.

Abstract: Methods and systems for generating spherical game videos for virtual reality (VR) streaming and replay are disclosed. The method, when executed by a processor, comprises first recording game environment around a virtual camera array inserted into a source computer game that lacks spherical video output, using a first subset of virtual cameras within the virtual camera array. Next, receiving game metadata of a source game play of the source game, configuring a local game play according to the received game metadata, recording a video of the local game play using a second subset of virtual cameras, wherein the second subset of virtual cameras is not equal to the first subset of virtual cameras, and generating a spherical video from the recorded game environment and the recorded local game play. The present invention aids the mass adoption of VR technology by easily generating VR content from existing computer games.

Abstract: An organic light emitting diode (OLED) display includes a substrate and a display unit. The substrate includes a flat portion and a curved portion. The display unit includes pixels configured to display an image. At least some of the pixels are disposed in association with the flat portion and at least some of the pixels are disposed in association with the curved portion. The display unit includes first driving power lines connected to the pixels disposed in association with the flat portion and second driving power lines connected to the pixels disposed in association with the curved portion. The first driving power lines are configured to transmit a first power source voltage and the second driving power lines are configured to transmit a second power source voltage. The first power source voltage and the second power source voltage are different.

Abstract: One aspect of the present invention provides a simple, cost-effective, efficient solution directed to the generation of the source material for the generation of still panoramic images. The precision optical alignment among all the mounted lenses, provided by the precision rectangular mounting rig, greatly reduces or eliminates stitching errors. Stitching errors often result in noticeable defects in the final image which will require human technical assistance to remedy (if the defect is of the repairable type). Accurate, error-free, source material enables virtually full automation of the panoramic imaging process; wherein the end product is high quality and quickly achieved.

Abstract: A system and method for manipulating a virtual object based on intent is described. A reference identifier from a physical object is captured. The reference identifier is communicated via a network to a remote server. The remote server includes virtual object data associated with the reference identifier. The virtual object data is received at the computing device. The virtual image is displayed in a virtual landscape using the virtual object data. In response to relative movement between the computing device and the physical object caused by a user, the virtual image is modified. Brain activity data of the user is received. A state of the virtual object in the virtual landscape is changed based on the brain activity data.

Abstract: A method including causing a projection apparatus that outputs projection light to a predetermined display area to project and display a first image including plural figures such that the plural figures are respectively displayed in plural positions of a projection area that is projected by the projection light, specifying a figure of which brightness value is a maximum among the displayed plural figures so as to specify a brightness center point at which the brightness value is a maximum in the projection area, and causing the projection apparatus to project and display a second image indicating the specified brightness center point.

Abstract: Modular displays are made up of arrays of modules that include light sources and light modulators. The modules may include control circuits that perform some image processing functions. The modules may illuminate a screen directly or may include optical systems that project light onto a screen.

Abstract: A trailer with display screen storage and support includes infrastructure necessary to store, support and adjust the position and orientation of a large display screen displaying audio/video programming. The trailer has a bed facilitating storage of screen sections on one side of a telescoping support. A portion of the roof is attached to the telescoping support so the telescoping support emerges from within the trailer by lifting the roof portion integrated with the telescoping support. The screen display is separable into top and bottom halves, the top half affixed to the telescoping support and the bottom half separable from the top half and laterally movable to and from a storage position and to and from a position at which it may be releasably connected to the top half of the screen display. The screen display may have ends pivotable from extended to retracted configurations with respect to a center section.

Abstract: A head mounted display system for use with a mobile computing device, comprises a soft main body made entirely of a soft and compressible material, the main body has a retention pocket entirely formed by the material and configured to accept and secure the mobile computing device and a lens assembly comprising two lenses configured to focus vision on respective areas of a display screen of the mobile computing device, the lens assembly held within one or more apertures formed in the main body entirely by the material, the two lenses mounted for independent movement with respect to each other, such that a split screen image may be viewed through the two lenses on the display screen.

Abstract: Removes undesirable camera rotation from a panoramic video. Video frames are mapped to a sphere and then projected to a forward-looking planar video. Camera tracking or other techniques are used to derive camera position and orientation in each frame. From the camera orientation, a correcting rotation is derived and is applied to the sphere onto which the panoramic video was mapped. Re-projecting video from the rotation-corrected sphere reduces or eliminates camera rotation artifacts from the panoramic video. Rotation may be re-introduced and other visual effects may be added to the stabilized video. May be utilized in 2D virtual reality and augmented reality displays. Depth may be accepted by the system for objects in the video and utilized to create 3D stereoscopic virtual reality and augmented reality displays.

Abstract: Integrated Data and Power Cord for use with Modular Display Panels In one embodiment, a display panel includes a plurality of display elements, and image control circuitry coupled to the display elements. A power supply circuitry is coupled to the display elements. A housing encloses the display elements and the image control circuitry. The housing is sealed with respect to external elements. A first integrated data and power cable extends from outside the housing, through a housing wall and electrically connected to the image control circuitry and the power circuitry. A second integrated data and power cable extends from outside the housing, through the housing wall and electrically connected to the image control circuitry and the power circuitry.

Abstract: Provided is a geometric correction apparatus and method based on a recursive Bezier patch sub-division. A geometric correction method may include: receiving, from a camera, a first image that is obtained by photographing a black screen that is projected by a projector onto a projection surface; receiving, from the camera, a second image that is obtained by photographing a predetermined pattern that is projected by the projector onto the projection screen; generating a third image by subtracting the first image from the second image; and performing geometric correction with respect to the predetermined pattern to correct a distortion between the predetermined pattern and the third image.

Abstract: Methods and apparatus provide for a display device comprising a plurality of display panels arranged adjacent to one another along the respective peripheral edges thereof, and wherein respective first and second viewing planes form an obtuse angle T relative to each other. The display device further includes a cover sheet located in proximity to, and covering the first and second viewing planes, and includes a light compensation portion located proximate to the peripheral edges of the first and second flat panel displays, and has a curvature complementary to the obtuse angle between the respective first and second viewing planes. The light compensation portion bends light produced by respective peripheral areas of the first and second flat panel displays proximate to the respective peripheral edges thereof to reduce visual discontinuities introduced by the peripheral edges into an image displayed on the first and second flat panel displays.

Abstract: A method includes generating in a computer a representation for the color transfer function both direct and inverse, of a nonideal source device to those in a target device significantly different than the source device, using higher-dimensional Bezier patches by using a non-linear parameterization of the Bezier patches in the XYZ space for converting the RGB colors in the source device. The method is illustrated in an application for processing spatial variation in luminance and chrominance in a multiple projector display, which include the steps of balancing per projector white point, morphing per pixel chrominance gamut, constraining per pixel perceptual luminance; and smoothing per pixel Bezier based luminance.

Abstract: An interface (303) between adjacent ones of light guide sections (310) is inclined with respect to an incident surface (301) and an emission surface (302) of the light guide element (300A) so that an incident surface (311) of at least a part of the light guide sections (310) overlaps a part of a display region (202) in a liquid crystal panel (200A) and an emission surface (312) of said at least a part of the light guide sections (310) overlaps at least a part of a frame region (203) above which an image on the display region (202) is to be displayed. Furthermore, a relation 5°<?<85° is met, where ? indicates an angle between a direction of a borderline between adjacent light guide sections (310) on a plan view and a direction in which pixels (201) adjacent to the frame region (203) are aligned.

Abstract: A display system and a method for displaying items and/or performances is provided. At least a display panel is used to play multimedia content. In an embodiment, at least a portion of the display panel turns transparent for displaying items or performances in a display space. In an embodiment, the display item is moved in accordance with the multimedia played on the display panel. In an embodiment, light effects are adjusted during the display. In an embodiment, audio media is played and adjusted during the display.

Abstract: An imaging module is provided with: a front case, in which a lens unit is mounted on a side of the subject to be imaged; a back case, which is attached to the front case and seals an imaging substrate in an inside space formed with the front case; and a bracket attached to the back case, and the back case is attached to the front case by case a case fastening screw that is screwed into a screw hole and a case screw-fastening through-hole, and the positioning protrusion 5a is inserted into the case screw-fastening through-hole, so that the back case is positioned on the bracket.

Abstract: Disclosed is a display apparatus with an improved structure of its display unit and main body. The display apparatus includes: a display unit which includes a display connector and displays an image; and a main body which includes a power supply unit for supplying power to the display unit, an image processing unit for outputting image signals, and a main body connector which is directly or indirectly connected to the display connector in order to supply the power and the image signals output from the power supply unit and the image processing unit, respectively, to the display unit.

Abstract: A medical imaging system having a processor with software executing thereon is provided for processing and display of multiple bandwidths of video in multiple display areas. The system receives a video signal with a plurality of portions and generates at least two signals there from. Each of the two signals has a bandwidth for display in a different display area. The two signals are updated so that each component displays a different portion of the input video signal, and the two signals may be combined for display on a single display device having two display areas.

Abstract: A robotic mount is configured to move multiple electronic video projectors. The robotic mount is movable in three-dimensions, whereby the associated video projectors are moveable in three-dimensional space.

Abstract: According to one embodiment, an electronic device includes a first display, a transmitter and a controller. The first display is configured to display first video. The transmitter is configured to transmit second video to a second electronic device having a second display. The controller is configured to determine a first resolution of the second video based on the first video, to convert the second video to the first resolution, and to transmit the converted second video to the second electronic device.

Abstract: A projector that can solve a problem in which a projection image is disturbed due to deviation of incident positions of projection light to a screen is provided. Projection section 11 includes LD light emission section 111 and scanning section 112 that scans light emitted by LD light emission section 111 and projects the scanned light to the rear plane side of the screen. Control section 12 controls an amount of light emission of the light and a scanning angle of scanning section 112 based on an image signal so as to cause projection section 11 to project an image corresponding to the image signal to the screen. Control section 12 corrects an orientation of projection light corresponding to each pixel of the image projected from projection section 11 based on a refractive index of the light transmission member and a scanning angle of scanning section 112 so as to correct an incident position of the projection light on the screen.

Abstract: A video projector, a cluster of video projectors and a method for wirelessly transmitting image data within the cluster of video projectors. The video projector includes a first antenna located at a first side of the projector and a second antenna located at a second side of the projector, opposite to the first side. Image data is divided into sub-parts, and distributed by assigning each image data sub-part to a video projector. A video projector receiving image data sub-parts extracts and stores the image data sub-part assigned to it, and retransmits image data sub-parts assigned to respectively a second and third video projectors.

Abstract: An image transmitting circuit includes: an image supply section configured to supply respective pixels arranged in a predetermined direction in an original image configured of pixels arranged two-dimensionally in a matrix; an image mapping section configured to map respective dividing number of the pixels onto different images and thereby to generate divided images every time the dividing number of pixels are supplied to the image mapping section, the dividing number being a number into which the original image is divided; and transmitting sections of the dividing number or more each corresponding to one of a plurality of communication channels and configured to transmit one of the divided images via the corresponding communication channel.

Abstract: Disclosed is a system for generating and synchronizing video across multiple displays during a theatrical performance. In particular, the disclosure relates to individual handheld video monitors that can be arranged to create larger images or video. The system is adapted for use in theatrical performances during which performers manipulate and selectively arrange the monitors to produce differing visual effects. Each of the video monitors includes a computer and associated software for playing back still or video images. A control computer can wirelessly access each of the individual laptops to increase or decrease the rate at which the video or images appear. This allows all of the video monitors to be synchronized during the course of a performance.

Abstract: An apparatus and method provides an automated mechanism for configuring a position arrangement of displays in a group of displays, such as a display grid. The apparatus and method uses an image capture unit, such as a camera to capture an image of the entire display grid while test patterns are being provided. In one example, a first device outputs the test patterns to the display grid while a second device that includes the camera analyzes the captured images and determines whether a display in the display grid needs to be logically remapped to provide proper image display when the first device outputs full SLS frames in normal operation.

Abstract: In an embodiment, a control device configures session parameters (e.g., related to an audio component, a video component, an eye tracking component, etc.) for a coordinated display session. The control devices maps, for proximate client devices registered as presentation devices for the coordinated display session, a different portion of visual data for the coordinated display session to respective display screens, and delivers the mapped portions of the visual data to the proximate client devices for presentation by the respective display screens during the coordinated display session. The control device obtains eye movement monitoring feedback from a set of eye tracking devices, the eye movement monitoring feedback characterizing eye movements of a viewing population of the coordinated display session. The control device modifies the session parameters associated with the coordinated display session based on the eye movement monitoring feedback.

Abstract: Systems and methods for calibrating a 360 degree camera system include imaging reference strips, analyzing the imaged data to correct for pitch, roll, and yaw of cameras of the 360 degree camera system, and analyzing the image data to correct for zoom and shifting of the cameras. Each of the reference strips may include a bullseye component and a dots component to aid in the analyzing and correcting.

Abstract: A display apparatus and a control method of the display apparatus are provided. The display apparatus includes a display panel which is partitioned into a plurality of panel areas; a storage unit which stores a video frame comprising a plurality of video areas; an operating unit which controls the display panel so that the video frame is displayed on the display panel; and a data reading unit which reads a portion of a video area and a portion of another video area from among the plurality of video areas stored in the storage unit, and transfers the read portions to the operating unit so that the read portions are displayed on one of the plurality of panel areas of the display panel.

Abstract: An electronic billboard generally includes a plurality of hand mountable structural frames mounted to the poster panels of an existing in field non electronic static billboard; the hand mountable structural frames being laid out in an array; and where individual ones of the hand mountable structural frames are configured in a further array of structural bay members adapted to receive therein display modules with dual LED display panels; a plurality of preformed power and data harnesses electrically and mechanically coupled between individual ones of the bays and a universal power and data distribution system coupled to the harnesses for providing data and direct current low voltage to the display modules to facilitate the conversion of the distributed data display information into visible radiant energy which is displayed by the electronic billboard.

Abstract: In an image/audio playback technology in a mobile communication terminal, a single image is divided into two halves, i.e., left-half and right-half images, which are displayed on two mobile communication terminals, respectively. In addition, two mobile communication terminals can play left-side and right-side audio data, respectively, which compose stereo audio data, according to the relative locations of the two mobile communication terminals.

Abstract: A splice display includes at least two liquid crystal displays (LCDs) that are mutually spliced, and the LCDs form a spliced frame at a spliced position of the LCD. The splice display further includes an image splitter and at least one organic electroluminescence display (OLED) panel. A frame of the OLED is transparent, and the OLED covers the spliced frame. The image splitter splits an image signal into a plurality of parts, and transmits the split image signal to the OLED and the LCDs for display.

Abstract: A method, system and apparatus for blending overlapping images are provided. Image areas mapped to a common image space that includes a blend region: fixed image values are assigned to areas outside the blend region. Pixels from the blend region are iteratively sampled in the common image space, and for each respective sampled pixel corresponding to the sampled pixel in a respective image area: a value of the respective sampled pixel is changed to an average of neighbouring pixel values in the respective image area; and, when each respective sampled pixel in each of the at least two image spaces is changed to the average of the neighbouring pixels, each averaged respective sampled pixel value is normalize to a blended value, wherein iterations are repeated until a convergence criteria is met. One or more blend masks is output, each comprising at least normalized blended pixel values in the blend region.

Abstract: The amount of information provided to a user is adjusted adaptively by means of a simple method. To this end, the present invention includes delay sections 70A to 70D that each add a predetermined amount of delay to a picture whose playback speed has been converted, and output the picture to display sections 2B to 2E other than a first display section 2A of a plurality of display sections, and a playback speed converting section 60 that converts the playback speed of an input picture on the basis of a given variable, and outputs the converted playback speed to the first display section 2A and the delay sections 70A to 70D.

Abstract: A method is disclosed herein that derives a post-alignment transform that is applied to the input source after the application of an alignment transform to ensure that when each source illuminates the screen, the display is aligned and retains the correct displayed aspect ratio. The transform takes into account the alignment transform and the input source aspect, and then performs a secondary, post-processing transformation that corrects the distortion induced by the alignment transform. This aspect-preserving function is a linear transform that maps pixels in the aligned space to the aligned and aspect-correct space and can be applied to the input signal after the first alignment transform, or, in the case where the alignment transform is also linear, transforms can be directly combined to derive a compound multi-projector, aspect preserving transform. In this way, the input signal to the projectors will be aligned as well as retain proper aspect.

Abstract: In accordance with an embodiment, a method of processing an electronic image having caption text includes receiving the electronic source image, detecting the caption text in the electronic source image, reformatting the electronic source image, reformatting the caption text, and overlaying the reformatted caption text on the reformatted electronic image to form a resultant image.

Abstract: A system is disclosed including an image sensor positioned at a first specified angle relative to a projected image plane. The system includes a projector that projects a test pattern onto the projected image plane. A controller is structured to iteratively adjust the projector focus until an image focus index is maximized, where the image focus index is a function of an amplitude of at least one harmonic frequency of a scan of the test pattern. The controller is further structured to determine a skew indicator value and adjust a projector skew adjustment. The controller is further structured to compare a current zoom level to a target zoom level and adjust a projector zoom. The projected image plane is a manufacturing surface, where the projected image is utilized in a manufacturing process.