Abstract: Methods for carrying and transmitting overlay depth data of an overlay of a stereoscopic image of a display device as a fraction of a viewer distance from the overlay are described.

Abstract: There is provided an electronic display system for retail product displays including an electronic display apparatus, a controller, a database stored plan-o-gram data and associated devices.

Abstract: Exemplary embodiments of the present disclosure relate generally to methods, computer-accessible medium and systems for dark flash photography. For example, described herein is an exemplary embodiment of an apparatus for providing illumination and obtaining an image, which can include, e.g., a first arrangement configured to emit a flash of light including ultra-violet light and/or infra-red light to illuminate a scene and/or one or more subjects, and a second arrangement configured to obtain an image of the illuminated scene and/or one or more subject. A duration of time and/or an intensity level of the flash can be selected, e.g., so that wavelengths of the flash can be substantially invisible to a human eye. For example, the visibility of the flash perceived by the human eye can be, e.g., approximately 200 times less than the visibility of a standard flash of light having substantially the same amount of energy as the flash.

Abstract: A medical apparatus includes: a storage section that stores three-dimensional image information in a subject, the three-dimensional image information being acquired in advance; an image pickup unit that acquires an optical image in the subject; a luminal organ extracting section that extracts image information of a three-dimensional shape of a specific luminal organ in the subject; a position correspondence control section that sets correspondence between two coordinate systems; a feature information acquisition section that acquires feature information in the image information of the extracted three-dimensional shape of the specific luminal organ; an associated image generating section that generates an image in which the feature information is associated with the image information of the three-dimensional shape of the specific luminal organ; a control section that performs control to display a piece of the feature information in the vicinity of the position information of the image pickup unit, etc.

Abstract: An image processing apparatus that compresses image data according to a compression parameter, includes: a data acquisition section that acquires information on whether photographing condition data is added to the image data inputted or not and content of the photographing condition data; a compression parameter determination section that determines the compression parameter according to an acquisition result of the photographing condition data in the data acquisition section; and a compression processing section that applies compression processing to the image data according to the determined compression parameter, wherein the photographing condition data includes information related to presence or absence of an optical low-pass filter at time of photographing an image of the image data.

Abstract: A moving image coding apparatus, a code amount control method, and a code amount control program enable appropriate code amount control to be performed in units shorter than frames. The moving image coding apparatus includes a coding unit, a quantization parameter determination unit, and a target code amount setting unit. The target code amount setting unit designates the number of macroblocks and sets a target code amount as a code amount to be allocated to the designated number of macroblocks. The quantization parameter determination unit calculates, for each macroblock, a quantization parameter to be used in quantization of a current macroblock based on a sum of absolute transformed differences SATD used in a motion estimate process. The moving image coding apparatus performs quantization using the calculated quantization parameter value.

Abstract: Imaging apparatus includes an illumination subassembly, which is configured to project onto an object a pattern of monochromatic optical radiation in a given wavelength band. An imaging subassembly includes an image sensor, which is configured both to capture a first, monochromatic image of the pattern on the object by receiving the monochromatic optical radiation reflected from the object and to capture a second, color image of the object by receiving polychromatic optical radiation, and to output first and second image signals responsively to the first and second images, respectively. A processor is configured to process the first and second signals so as to generate and output a depth map of the object in registration with the color image.

Abstract: A method for coding a dependent view picture based on a reference picture includes selecting a reference picture from a base view picture list if a metric of intra macroblocks in an evaluated picture is greater than a first threshold, selecting a reference picture from a dependent view picture list if a metric of skipped macroblocks in the evaluated picture is greater than a second threshold, and coding a dependent view picture using the selected reference picture. An application-controlled weighting mechanism may be used if both of the thresholds are not met.

Abstract: According to one embodiment, the system for inspecting a cell substrate is provided. The inspection system includes: a signal generator transmitting to a cell substrate a display signal causing the cell substrate to display a test image; an imaging apparatus capturing the test image displayed on the cell substrate; a parallax image generator arranging the set of parallax image information of the captured test image for each parallax image to generate a parallax image prediction of parallax image which is obtained when the cell substrate is bonded to the lenticular lens; and an interface apparatus displaying the parallax image predictions.

Abstract: A method, a device and computer readable storage media facilitate providing screen content including a plurality of video frames that are displayed by a computing device. During coding of the screen content, a suitable predictor is found that is used to code pixel blocks from one or more frames. The suitable predictor is found by selecting a pixel block of a current frame, conducting a direction based search by comparing pixel blocks within a search window of a reference frame with the selected pixel block of the current frame to determine whether a match exists, and, in response to a determination that no sufficient match has been found, conducting a feature oriented search by comparing pixel blocks of the reference frame with the selected pixel block of the current frame to find a suitable match based upon a common feature.

Abstract: A microscope includes an image acquisition system, microscope components and a touch screen. The image acquisition system is configured to optically and digitally image an object so as to produce an object image The microscope components are at least one of motorized and electrically controllable. The touch screen is configured to display the object image in a display area thereof and to sense inputs in the display area within the displayed object image so as to change settings of the microscope components.

Abstract: Digital noise removal methods and systems for picture quality improvement on next generation high quality set-top-box and digital TV SOCs is disclosed with particular to a de-blocking method and system that is effective on on-grid and off-grid blocky artifacts generated by lossy video compression standards. Blocky artifacts are filtered by extracting motions vectors for a current pixel block, calculating off-grid positions based on the extracted motion vectors, and applying de-blocking filtering along the calculated off-grid positions. The methods and systems can further skip filtering on-grid blocky artifacts to be filtered by an on-grid de-blocking filter known in the art.

Abstract: An image decoding apparatus (100) capable of appropriately executing parallel decoding processing by a simple structure includes: a stream segmentation control unit (140) that designates a processing target area, and selects a portion of a segment stream based on a position of the processing target area; M stream segmentation units (130) that generate M×N segment streams by executing stream segmentation processing on designated M processing target areas in parallel; and N decoding engines (120) that decode respective portions of the N segment streams including the selected portion in parallel. In the case where a slice included in the processing target area is segmented into a plurality of slice portions and assigned to a plurality of segment streams, each stream segmentation unit (130) reconstructs, for each segment stream, a slice portion group made up of one or more slice portions assigned to the segment stream, as a new slice.

Abstract: A system and a method are disclosed for transcoding video files on a server such that they can be streamed to a client device in substantially real-time. The server receives a video file a uses a prediction algorithm to predict each video frame's size based on encoding and streaming parameters associated with the input file and an output stream and transcoding each video frame. If a transcoded frame is too large, it is compressed further, if it is too small, the video file is padded. As such, each video frame transcoded or padded until the encoded frame is the same size as a predicted size. The transcoded frames are streamed to a client device to enable the client to device to playback the video after requesting it from the server.

Abstract: An image acquisition apparatus 1A includes a sample stage 10 for placing a sample S thereon, an image pickup device 20 capable of acquiring a two-dimensional image and TDI driving, an image pickup optical system 30 including an objective lens 32, a scanning unit for acquiring an observation image while scanning the sample S by the image pickup device 20 and the image pickup optical system 30, and a focus oscillation control device 40 for controlling oscillation of a focus in the sample S so that an image pickup focus in the sample S oscillates at an oscillation frequency fs in an optical axis direction. The focus oscillation control device 40 sets the oscillation frequency fs so that the oscillation frequency fs substantially coincides with Ns times (Ns is an integer not less than 1) the basic frequency, which is a reciprocal 1/Ti of an image pickup period Ti of TDI driving in the image pickup device 20.

Abstract: An on-vehicle display device 1 displays a video around a vehicle and travel information of the vehicle on a single display unit 20. The on-vehicle display device 1 includes video display enable/disable input units 11, 12, 13, and 14 inputting display enable/disable of the video around the vehicle, display modification units 30 and 40 modifying the display size of each of a video display section and a travel information display section on the basis of the input video display enable/disable, and an input prediction unit 30 predicting input of display enable/disable of the video around the vehicle. Even when video display disable is input from a video display enable/disable input unit, if the input prediction unit 30 predicts input of video display enable, the display modification units 30 and 40 do not modify the display size of each of the video display section and the travel information display section.

Abstract: An electronic endoscope apparatus includes an electronic endoscope including an insertion portion, an operation portion, and a universal cord; a plurality of types of signal cables which are selectively placed between the insertion portion and a connection connector of the universal cord, have equal lengths and different diameters, and include overall shields having surface areas corresponding to the diameters; and an electromagnetic covering member which is configured to have a predetermined surface area and covers a small-diameter signal cable to form a shield reinforcing portion, the shield reinforcing portion electrically connected to the overall shield of the small-diameter signal cable causing a sum of the surface area of the shield reinforcing portion and the surface area of the overall shield of the small-diameter signal cable to be set to be equal to or larger than the surface area of the overall shield of a large-diameter signal cable.

Abstract: An imaging system is provided for a vehicle. The imaging system includes: an imager configured to image a forward external scene of the controlled vehicle and to generate image frame data corresponding to each frame of a series of acquired image frames; and a processor configured to receive and analyze the image frame data to detect a dominant scene motion and to determine relative motion of objects as compared to the dominant scene motion, and wherein the analysis of the image frame data performed by the processor includes categorizing objects detected in the image frame data using the relative motion of those objects.

Abstract: A method for viewing of a three dimensional image of a scene with a monocular device on one eye for viewing a first two-dimensional image of the scene and providing a second display for viewing a second two-dimensional image of the scene in a stereo image pair with the other eye. Using a camera to provide an image of the second display to determine the position of the second display relative to the first display. Adjusting the alignment of the first two-dimensional image in correspondence to the determined position of the second display relative to the first display, whereby the viewer perceives a three dimensional image of the scene and one or more other viewers that are not wearing monocular devices can view the second display with both eyes so that they can perceive a two-dimensional image of the scene.

Abstract: Methods used with a thermal imager in capturing a primary thermal image of an object or scene and then associating it, as desired, with any of a multitude of information relating to the object or scene. The related information can be associated with the primary thermal image in the field after the image is captured. The related information can pertain to further detail regarding the object, the surroundings of the scene, and/or surroundings of the location of the scene, which when associated with the primary thermal image, collectively represents a form of asset information card for the image.