Abstract: The present technology makes it possible for a conventional frame interpolation technology to handle moving image data captured with a high-speed frame shutter and having a high sharpness image component. Moving image data at a predetermined frame rate and a predetermined resolution is acquired. When a ratio of the predetermined frame rate to a camera shutter speed falls below a threshold value, filtering processing for raising the degree of correlation between adjacent frames is performed on the acquired moving image data. For example, the camera shutter speed is estimated on the basis of information on the frame rate and the resolution.

Abstract: An appearance inspection apparatus radiates light from a light source to a flat inspection surface of an object to be inspected as diffused light with an illumination device, and photographs the inspection surface with a camera. The camera and the light source are arranged in a positional relationship that satisfies ??? at any positions on the inspection surface, where ? represents an angle formed between a straight line connecting an arbitrary position on the inspection surface to the camera and a line perpendicular to the inspection surface at that position, and ? represents an incident angle of the diffused light.

Abstract: A display system includes a content generator, an HMD (Head Mounted Display), and a computing device. The content generator generates image/video information. The HMD obtains a viewing-angle range relative to a user. The computing device is coupled to the HMD. The computing device receives the image/video information and the viewing-angle range. The computing device controls the HMD to display a main screen and a sub-screen according to the image/video information. The computing device adjusts the transparency of the sub-screen by comparing the viewing-angle range with an important-angle range.

Abstract: A video camera captures images of retroreflection from the retina of an eye. These images are captured while the eye rotates. Thus, different images are captured in different rotational positions of the eye. A computer calculates, for each image, the eye's direction of gaze. In turn, the direction of gaze is used to calculate the precise location of a small region of the retina at which the retroflection occurs. A computer calculates a digital image of a portion of the retina by summing data from multiple retroreflection images. The digital image of the retina may be used for many practical applications, including medical diagnosis and biometric identification. In some scenarios, the video camera captures detailed images of the retina of a subject, while the subject is so far away that the rest of the subject's face is below the diffraction limit of the camera.

Abstract: A user interest analysis generator analyzes input data corresponding to a viewing of the video program via the A/V player by at least one viewer, to determine a period of interest corresponding to the at least one viewer and to generate viewer interest data that indicates the period of viewer interest. A social media generator processes the viewer interest data and time coded metadata corresponding to the video program to automatically generate a social media post, corresponding to content of the video program during the period of interest, for posting to a social media account associated with the at least one viewer.

Abstract: By providing 3D representations of noteworthy locations for comparison with images, the 3D location of the imaging device, as well as the orientation of the device may be determined. The 3D location and orientation of the imaging device then allows for enhanced navigation in a collection of images, as well as enhanced visualization and editing capabilities. The 3D representations of noteworthy locations may be provided in a database that may be stored local or remote to the imaging device or a programmable device processing images obtained from the imaging device.

Abstract: A co-located block of a video block to be decoded is determined. The co-located block is either (i) a forward reference block or (ii) a backward reference block. A reference motion vector is selected for the video block. When the co-located block is backward reference block and has a forward reference motion vector and a backward reference motion vector, the forward reference motion vector of the co-located block is selected. When the co-located block is forward reference block and has a forward reference motion vector and a backward reference motion vector, the backward reference motion vector of the co-located block is selected. When the co-located block has only one reference motion vector, the one reference motion vector of the co-located block is selected. When the co-located block has no reference motion vector, a zero-reference motion vector for the video block is selected.

Abstract: There is provided a method of processing digital images, comprising: selecting a reference digital image according to a uniform distribution requirement of pixel intensity values, performing for each certain overlapping image that overlaps with at least one other image at a respective overlapping region: computing a value for each respective gamma parameter for each channel of the certain overlapping image to obtain a correlation between pixel intensity values, corrected with the respective gamma parameters, of each channel of each overlapping region of the certain overlapping image, and pixel intensity values, corrected with respective gamma parameters, computed for each of the at least one other image, for each channel of each respective overlapping region, and creating corrected images by applying the computed value of each respective gamma parameter to the overlapping and non-overlapping regions of each certain overlapping image of the plurality of overlapping images.

Abstract: A method of decoding video data using quantized coefficient components and inter prediction information can include extracting quantized coefficient components and inter prediction information from a received bit stream; applying an inverse scan pattern to the quantized coefficient components to generate a quantized block having a size of a transform unit; generating a quantization parameter per quantization unit which is a unit for deriving a quantization parameter and inverse-quantizing the quantized block to generate a transformed block; generating a residual block by inverse-transforming the transformed block; deriving motion information and generating a prediction block; and generating a reconstructed block by using the residual block and the prediction block.

Abstract: A shading device comprises: a shading member; a display apparatus disposed on a surface of the shading member in such a manner that a display portion faces to an operator; an image pickup device to pick up, as an image, a region which an opposite surface of the surface faces, and generate image pickup data; and a data processing circuit to generate display image data, based on the image pickup data. An image display module comprises: a display apparatus to be disposed on a surface of a shading device in such a manner that a display portion faces an operator; an image pickup device to pick up, as an image, a region to which an opposite surface of the surface faces, and generate image pickup data; and a data processing circuit to generate display image data, based on the image pickup data.

Abstract: Block processing pipeline methods and apparatus in which. motion estimation is performed at a stage of a motion estimation module for a current block with respect to a reference frame at one or more partition sizes to determine candidate motion vectors. The candidate motion vectors may be passed to a next stage for refinement. Motion estimation may then be performed at the next stage to refine the motion vectors. In performing motion estimation at this stage, the input motion vectors of at least one partition size received from the previous stage may be used as candidate motion vectors in searches for at least one other partition size.

Abstract: According to the present invention, an image encoding apparatus comprises: a motion prediction unit which derives motion information on a current block in the form of the motion information including L0 motion information and L1 motion information; a motion compensation unit which performs a motion compensation for the current block on the basis of at least one of the L0 motion information and L1 motion information so as to generate a prediction block corresponding to the current block; and a restoration block generating unit which generates a restoration block corresponding to the current block based on the prediction block. According to the present invention, image encoding efficiency can be improved.

Abstract: According to the present invention, an image encoding apparatus comprises: a motion prediction unit which derives motion information on a current block in the form of the motion information including L0 motion information and L1 motion information; a motion compensation unit which performs a motion compensation for the current block on the basis of at least one of the L0 motion information and L1 motion information so as to generate a prediction block corresponding to the current block; and a restoration block generating unit which generates a restoration block corresponding to the current block based on the prediction block. According to the present invention, image encoding efficiency can be improved.

Abstract: Methods and apparatus for capturing and displaying stereoscopic images are described in a manner that allows a user to obtain a 3d virtual reality experience simulating that of being in a seat at a football game or other event. Rear images are modified, e.g., in luminance intensity, to make them consistent with the luminance intensity of the forward images to avoid or reduce edges or differences in luminance intensity as a users turns his head from viewing a main image area to a side or rear image area. A seamless 3D presentation is made possible through the use of fisheye lenses at capture time and combining of images corresponding to forward and rear image areas as a user turns his or her head requiring a change in the captured image area which is displayed to the user.

Abstract: The image decoding method includes: determining a context for use in a current block to be processed, from among a plurality of contexts; and performing arithmetic decoding on a bit sequence corresponding to the current block, using the determined context, wherein in the determining: the context is determined under a condition that control parameters of neighboring blocks of the current block are used, when the signal type is a first type, the neighboring blocks being a left block and an upper block of the current block; and the context is determined under a condition that the control parameter of the upper block is not used, when the signal type is a second type, and the second type is “no_residual_data_flag”.

Abstract: A wafer inspection apparatus includes a linear stage configured to support a chuck on which a wafer is disposed and to move the chuck along a guide rail, wherein the guide rail extends in a first direction, an image sensor module overlapping the linear stage, and a rotary stage supported by the linear stage. The rotary stage is configured to rotate the chuck in a state where a center of the wafer is aligned with the image sensor module. The image sensor module includes a light source directing light onto the wafer, and an image sensor extending in a second direction crossing the first direction.

Abstract: An image rendering apparatus and method for rendering a stereoscopic image are provided. The image rendering apparatus may estimate a disparity of an image pixel included in an input image. Based on the disparity, a viewpoint direction of the image pixel may be determined by the image rendering apparatus. The image rendering apparatus may render a stereoscopic image by assigning a pixel value of the image pixel to a display pixel having a viewpoint direction corresponding to the viewpoint direction of the image pixel, instead of generating a multiview image.

Abstract: A media processing tool adds custom data to an elementary media bitstream or media container. The custom data indicates nominal range of samples of media content, but the meaning of the custom data is not defined in the codec format or media container format. For example, the custom data indicates the nominal range is full range or limited range. For playback, a media processing tool parses the custom data and determines an indication of media content type. A rendering engine performs color conversion operations whose logic changes based at least in part on the media content type. In this way, a codec format or media container format can in effect be extended to support full nominal range media content as well as limited nominal range media content, and hence preserve full or correct color fidelity, while maintaining backward compatibility and conformance with the codec format or media container format.

Abstract: A virtual eyeglass set may include a frame, a first virtual lens and second virtual lens, and a processor. The frame may mount onto a user's head and hold the first virtual lens in front of the user's left eye and the second virtual lens in front of the user's right eye. A first side of each lens may face the user and a second side of each lens may face away from the user. Each of the first virtual lens and the second virtual lens may include a light field display on the first side, and a light field camera on the second side. The processor may construct, for display on each of the light field displays based on image data received via each of the light field cameras, an image from a perspective of the user's respective eye.

Abstract: Sampled data is packaged in checkerboard format for encoding and decoding. The sampled data may be quincunx sampled multi-image video data (e.g., 3D video or a multi-program stream), and the data may also be divided into sub-images of each image which are then multiplexed, or interleaved, in frames of a video stream to be encoded and then decoded using a standardized video encoder. A system for viewing may utilize a standard video decoder and a formatting device that de-interleaves the decoded sub-images of each frame reformats the images for a display device. A 3D video may be encoded using a most advantageous interleaving format such that a preferred quality and compression ratio is reached. In one embodiment, the invention includes a display device that accepts data in multiple formats.