Abstract: A circuit for computing sums of absolute difference (SAD) is provided. The circuit has an absolute difference circuit, a first adder, a first register and a first selective circuit. The absolute difference circuit receives a first data PMi,j and a second data PSi,j and output a absolute difference data ADi,j, wherein ADi,j=|PMi,j?PSi,j|. The first adder receives and adds the absolute difference data and a first accumulative data, and outputs a first sum. The register receives and locks the first sum according to a first preset timing sequence, and outputs a first sum of absolute difference data. The first selective circuit receives and selects the first sum of absolute difference data or 0, and outputs the selected data as the first accumulative data.

Abstract: A moving picture decoding method and a decoder for restoring a moving picture signal is disclosed. The decoder includes a decoding unit that decodes the differential signal, a motion vector, and a shape information indicating a shape of a block that becomes a unit for the motion compensated prediction by using an encoded bitstream. The shape information indicates an accuracy of virtual pixel and an interpolation filtering method. The decoder also includes a motion compensating unit that determines that the accuracy of virtual pixel and the interpolation filtering method is to be used in generating the predicted picture based on the shape of the block that becomes the unit for the motion compensated prediction, and generating the predicted picture containing the virtual pixel with reference to the reference pictures stored in a frame memory using the motion vector decoded by the decoding unit according to a determination result.

Abstract: A method and system for projecting linearly polarized stereoscopic images to a viewer that results in increased viewer head-tipping capabilities is provided. The design includes projecting linearly polarized light energy toward a screen and providing the viewer with a set of linearly polarized eyewear configured to receive the linearly polarized light energy projected to the screen and transmit a right perspective view to a right eye of the viewer and a left perspective view to a left eye of the viewer. Projecting comprises performing a noise reduction technique to reduce crosstalk in linearly polarized light energy images projected.

Abstract: A method for compressing data samples using randomized quantization bins is disclosed. The method generally comprises steps (A) to (C). Step (A) may generate a size signal having a quantization step size corresponding to the data samples in an input signal using a compression circuit. The data samples generally reside in a range of numbers. Step (B) may generate the randomized quantization bins in the range based on a pseudorandom process. Step (C) may generate a plurality of quantized samples in a compressed signal by quantizing the data samples based on the randomized quantization bins.

Abstract: A moving picture coding apparatus (10a) according to the present invention includes a level analyzer (100a) that decides the maximum number of intra frame pixels which can be coded (Nfpx) and the maximum number of storage pixels which can be stored in a picture memory of a decoding apparatus (Nspx) on the basis of a level identifier (Lst) indicating a coding level that is designated by the user, thereby judging whether coding of an input image is possible or not and calculating the maximum number of reference pictures (Nrpn) as the number of reference candidate pictures which can be referred to at inter picture prediction coding, on the basis of the maximum number of intra frame pixels (Nfpx) and the input image size (the number of vertical pixels (Nhpx) and the number of horizontal pixels (Nwpx)).

Abstract: Systems and methods for identifying moving objects from received images are disclosed. Images are received from a stereo image capture device and from a moving image capture device. Distances from the stereo image capture device to points in a captured image are stored in a stereo distance map and distances from the moving image capture device are determined from pairs of images captured by the moving image capture device and stored in a moving distance map. Stereo disparities are determined from distances in the stereo distance map and motion disparities are determined from distances in the moving distance map. A scale is generated from the stereo disparities and the motion disparities. The scale is applied to the motion disparities and the scaled motion disparities and the stereo disparities are used to identify pixels in an image associated with a moving object.

Abstract: Using facial recognition and gesture/body posture recognition techniques, a system can naturally convey the emotions and attitudes of a user via the user's visual representation. Techniques may comprise customizing a visual representation of a user based on detectable characteristics, deducting a user's temperament from the detectable characteristics, and applying attributes indicative of the temperament to the visual representation in real time. Techniques may also comprise processing changes to the user's characteristics in the physical space and updating the visual representation in real time. For example, the system may track a user's facial expressions and body movements to identify a temperament and then apply attributes indicative of that temperament to the visual representation. Thus, a visual representation of a user, such as an avatar or fanciful character, can reflect the user's expressions and moods in real time.

Abstract: According to one embodiment, a display includes a telop detector, a depth corrector, a parallax image generator, and a display module. The telop detector is configured to calculate a probability of each pixel block being a telop. The pixel block is composed of a plurality of pixels in an input image. The depth corrector is configured to correct a predetermined depth of each pixel block in such a manner that as the probability is higher, the depth approaches a center of depth. The parallax image generator is configured to generate a parallax image of the input image based on the corrected depth. The display module is configured to display the parallax image stereoscopically.

Abstract: An object of the present invention is to express a predicted picture signal with light overheads, and to provide motion compensation of different pixel accuracy.

Abstract: A method of processing a video signal is disclosed. The present invention includes receiving prediction information of a macroblock and filter information, predicting a current picture using the prediction information of the macroblock, and applying a filter using the predicted current picture and the filter information. Accordingly, accuracy of prediction can be enhanced by applying a filter to a frame predicted before a residual for a predicted frame is coded. As the residual is reduced, efficiency of video signal processing can be enhanced.

Abstract: A display device for a vehicle which includes: an image-taking unit which takes images of an area ahead of the vehicle at predetermined intervals; a display which displays the images taken by the image-taking unit; and a controller which divides a display area of the display into a plurality of areas including a center area and a right-and-left side area, wherein the controller sets a first interval for the image-taking unit for taking images to be displayed in the right-and-left side area of the display to become longer than a second interval for the image-taking unit for taking images to be displayed in the center area.

Abstract: A video signal can be decoded at a reduced resolution by receiving a video signal encoded at a first resolution; determining a second resolution at which the received video signal is to be decoded, wherein the second resolution is lower than the first resolution; and decoding the received video signal at the second resolution. The second resolution can be selected from a plurality of predetermined decoding resolutions. Further, the second resolution can be selected in response to an input received from a user. Decoding of the received video signal can include scaling one or more reference pictures by a first scaling factor and scaling one or more non-reference pictures by a second scaling factor. Additionally, scaling can comprise transforming a first portion of frequency coefficients associated with a block of picture information and discarding a second portion of frequency coefficients associated with the block of picture information.

Abstract: A flat panel display device includes a cabinet, a flat panel display component, a control board, a switch unit, a switch unit holder, and a pair of screws. The switch unit has a support board and an AC switch. The switch unit holder has a holder main body with a pair of side plates that defines inside of the holder main body therebetween with the holder main body holding the support board of the switch unit inside of the holder main body, and a pair of screw mount portions that is integrally formed with the holder main body with the screw mount portions extending outside of the holder main body from the side plates of the holder main body, respectively. The screws are disposed through screw insertion holes of the screw mount portions and threaded into screw holes of the chassis of the flat panel display component.

Abstract: A video frame arithmetical context adaptive encoding and decoding scheme is presented which is based on the finding, that, for sake of a better definition of neighborhood between blocks of picture samples, i.e. the neighboring block which the syntax element to be coded or decoded relates to and the current block based on the attribute of which the assignment of a context model is conducted, and when the neighboring block lies beyond the borders or circumference of the current macroblock containing the current block, it is important to make the determination of the macroblock containing the neighboring block dependent upon as to whether the current macroblock pair region containing the current block is of a first or a second distribution type, i.e., frame or field coded.

Abstract: An imaging apparatus includes: an imaging device that images an object image through an optical system; an image signal processing section having a function of combining a plurality of imaged images into a combined image piece, the imaged images being obtained while the imaging apparatus is swept; a position sensor capable of obtaining position information of the imaging apparatus; and a controller that processes information of the position sensor, wherein the controller sends a notification of an appropriate value of a sweeping angular velocity based on the detection information of the position sensor and outputs a warning signal when the sweeping angular velocity exceeds an appropriate range.

Abstract: Visibility of defects is improved for inspection of structures and the like, by generating an image having higher resolution than pixel resolution of a TV camera itself. An appearance inspection apparatus is provided with a TV camera; a camera driving device for making the TV camera scan an inspection object; an image capture device for capturing the image in the TV camera as a digital image; a camera motion measuring device for measuring scanning motion of the TV camera; a high definition image generating device, which generates a high definition image having a higher pixel resolution than that of the TV camera, based on the digital images captured by the image capture device and the TV camera scanning motion data measured by the camera motion measuring device; and a recording device which records and stores positional information of the inspection object.

Abstract: The invention relates to a dual-field (NF and WF) imaging system comprising an optronic detector (1) and an optical combination of narrow-field focal length FNF having, an optical axis a front lens, a narrow-field entrance pupil situated in the vicinity of the front lens, a real wide-field entrance pupil, that is to say situated upstream of the front lens, an intermediate focal plane (IFP). The optical combination has, on the optical axis, the following refractive groups: a convergent front group G1 of focal length F, where F<FNF/2, this group G1 comprising the front lens, a divergent field-change group G2 that can move along the optical axis, this group being situated upstream of the IFP in NF configuration and downstream of the IFP in WF configuration, a relay group G3 imaging the IFP on the focal plane of the detector.

Abstract: A motion vector detection apparatus that obtains, for each of the blocks of a predetermined size into which one frame is divided, motion vector information in units of a plurality of partitions of differing rectangular shapes and differing sizes, up to the size of the blocks, has a partition connector means (23) that, when motion vectors for a plurality of partitions are obtained for one of the blocks, decides whether or not to connect a plurality of the partitions for which the motion vectors are obtained, and if the partitions are connected, includes motion vector information about the resulting connected partition in the motion vector information output from the motion vector detection apparatus. The motion vector encoding rate can be reduced.

Abstract: An image processing apparatus includes: a calculating unit configured to calculate motion information relating to between two images that make up an imaged moving picture; and a selecting unit configured to select compositing target images serving as compositing targets from a plurality of images that make up the imaged moving picture based on reliability that indicates the likelihood of the calculated motion information.

Abstract: A video coder includes a forward coder and a reconstruction module determining a motion compensated predicted picture from one or more previously decoded pictures in a multi-picture store. The reconstruction module includes a reference picture predictor that uses only previously decoded pictures to determine one or more predicted reference pictures. The predicted reference picture(s) are used for motion compensated prediction. The reference picture predictor may include optical flow analysis that uses a current decoded picture and that may use one or more previously decoded pictures together with affine motion analysis and image warping to determine at least a portion of at least one of the reference pictures.