Abstract: A technique for reducing the time required before a tracking process is performed again in calculating the position and orientation of an image capturing apparatus or an object. Images captured by the apparatus are acquired, the acquired images are stored in order per frame, straight lines detected in the captured images and straight lines in a three-dimensional space model are matched, the position and orientation of the apparatus are initialized by obtaining correspondences having the highest consistency, a captured image to be processed is selected from the captured images, the change in position and orientation of the apparatus is measured using the change in position and orientation of a target object in the selected image based on the initialized position and orientation of the apparatus, and if the measured change in position and orientation is not within a predetermined threshold, initialization is performed using the selected image.

Abstract: An apparatus for viewing of an image of a scene, including a monocular device worn by a viewer which includes a first display for displaying a first two-dimensional image of the scene with a first perspective to one eye of the viewer. a second display for displaying a second two-dimensional image of the scene with a second perspective to the other eye of the viewer, wherein the first perspective of the scene is different from the second perspective of the scene so that the viewer perceives a three dimensional image of the scene, while another viewer of the second display, that is not wearing a monocular device, views the two-dimensional image of the scene.

Abstract: A scene is imaged onto a spatial light modulator. The scene is captured by collecting a pan-chromatic image using a pan-chromatic camera. An object in the scene is detected based on one of physical motion or hyperspectral detection. A spectral measurement of the scene is performed using a hyperspectral image spectrometer. A current position, a current positional velocity, and a current positional acceleration of the object is tracked. An estimated position, an estimated positional velocity, and an estimated positional acceleration of the object for a future time is estimated. A current spectrum, a current effective spectral velocity, and a current effective spectral acceleration of the object is tracked. An estimated spectrum, an estimated effective spectral velocity, and an estimated effective spectral acceleration of the object for a future time are estimated.

Abstract: A method is disclosed including but not limited to, receiving a video data stream at a multimedia processor end user device; storing the video data stream at a digital video recorder; monitoring a playback of the stored video data stream at the multimedia processor end user device; detecting an advertising trigger in the playback of the video data stream at the multimedia processor end user device; logging a time for the trigger detected in the video data stream in a trigger log at the multimedia processor end user device; sending the trigger log including data to an advertising server so that the advertising verification system can correlate the time the trigger occurred with an advertising schedule; receiving a replacement advertising data stream from the advertising server based on the advertising trigger; and receiving a replacement advertising data stream during the playback of the video data.

Abstract: A digital image processing system takes color plus Z channel data as input, preprocesses, decimates, and codes the Z channel in-band as digital watermark data embedded within the color data prior to encoding and transmission. A second digital image processing system receives, decodes, and extracts the decimated Z channel data before applying statistical regularization to restore a full-resolution Z channel prior to depth-image-based rendering.

Abstract: Irradiation light LA and irradiation light LB, which are to be projected toward an irradiation target object from a plurality of irradiation light projection units, respectively, are corrected so as to be ached with outlines of the irradiation target object, which are viewed individually from the irradiation light projection units. In such a way, a surface of the irradiation target object is coated with irradiation light LA? and irradiation light LB?, which are narrower in range than the irradiation light LA and the irradiation light LA. In such a way, the irradiation target object having an arbitrary shape is coated with the plural pieces of irradiation light with high accuracy.

Abstract: A display device includes: a front-face member having a transparent plate, a frame having a joint face joined to a rear face of the transparent plate by a joint layer and a holding face provided upright from the joint face, and a hook projected from the holding face of the frame to the outer periphery side of the transparent plate; a display panel which is fit in the frame; a sandwiching member having a pair of clipping faces which come into contact with rear and front faces of the display panel, a side face connecting the pair of sandwiching faces, and an opening which is formed in the side face and to which the hook is inserted; and a rear-face casing covering the entire rear face of the transparent plate.

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: The present invention relates to a moving image coding apparatus and method involving the simultaneous parallel running of respective modules, namely: a segment-unit-coding module in which an input image frame is divided into segment units and the integer pel (integer pixel) motion is estimated while at the same time the 1/n pixel images are generated with respect to the segments of the image coded in the coding module; and a macroblock-unit-coding module in which the segments of the image frame whose the integer pel motion has been estimated in the segment-unit-coding module are received as input in the form of macroblock units and are coded in macroblock units through the 1/n pixel motion estimation. By separating the coding units into different modules and employing the techniques of parallel processing and pipelining, the present invention makes it possible to effect high-speed encoding with reduced delay in the coding rate due to differences in the processing speeds of the respective modules.

Abstract: Disclosed hereinafter is a scalable video providing system and method. The scalable video providing system of the present invention includes a terminal apparatus for, in the case in which a full SVC video, having a higher scalability than that of a base layer SVC video previously stored in the terminal apparatus, is to be displayed, transmitting a request query to request a enhancement layer svc bit stream, which is further required, to the outside based on the base layer SVC video; and a content providing server for, when the request query is received, searching for required pertinent content based on the request query and providing the enhancement layer svc bit stream, corresponding to the remaining scalable video other than the base layer SVC video of the searched content, to the terminal apparatus.

Abstract: The display apparatus includes an image display element being driven based on a digital video signal, a quantizing part converting an input analog image signal into the digital video signal based on a quantization phase and a quantization frequency, and a converting part converting an input value into an output value, the input value being a difference value of signal values of pixels adjacent to each other in the digital video signal. The apparatus includes an accumulating part accumulating the output values from the converting part that converts the difference values obtained over entire pixels in one frame of the digital video signal to produce an accumulation evaluation value, and a controller adjusting the quantization phase in the quantizing part such that the accumulation evaluation value becomes maximum. The output values a(m) for the input values k1, k2 and k3 satisfy conditions of a(k1+1)?a(k1)<a(k2+1)?a(k2), a(k2+1)?a(k2)=a(k3+1)?a(k3) and k1<mi-1?k2<k3<mi.

Abstract: An image pickup apparatus of the present invention includes: a photographing section that can photograph a subject from a plurality of viewpoints with parallax, and can photograph a 2D moving image of the subject obtained by photographing from at least one of the viewpoints and a 3D image of the subject obtained by photographing from the plurality of the viewpoints; a recording section that records the 2D moving image and the 3D image; a subject situation determination section that determines a timing suitable for photographing the 3D image while photographing the 2D moving image; and a photographing control section that controls the photographing section so as to photograph the 3D image when the subject situation determination section determines that the timing is suitable for photographing the 3D image.

Abstract: The digital broadcast receiver according to the present invention includes: a signal separating section that separates a main audio signal and a video signal from a decoded digital broadcast signal, and when the decoded digital broadcast signal includes the sub-audio signal, further separates the sub-audio signal; an audio generating section that decodes the main audio signal to generate a decoded main audio signal, and decodes the sub-audio signal, when it has been further separated, to generate a decoded sub-audio signal; a video generating section that decodes the video signal to generate a decoded video signal; a detecting section that detects an input to the audio generating section of the separated sub-audio signal; and a control section that, when the detecting section has detected an input of the sub-audio, controls the video generating section to further generate a sub-audio image signal to display a sub-audio image indicating the presence of sub-audio.

Abstract: An image processing apparatus includes a receiving unit receiving communication data including L and R images, an attribute information acquisition unit acquiring, from the communication data, attribute information including a photographing time, and an output control unit analyzing the images and the attribute information and switching between three-dimensional image display and two-dimensional image display. If L and R images photographed at the same photographing time have been acquired, the control unit performs three-dimensional image display.