Abstract: A device performs a decoding process as part of a bitstream conformance test. As part of the decoding process, the device performs a bitstream extraction process to extract, from a bitstream, an operation point representation of an operation point defined by a target set of layer identifiers and a target highest temporal identifier. The target set of layer identifiers contains values of layer identifier syntax elements present in the operation point representation, the target set of layer identifiers being a subset of values of layer identifier syntax elements of the bitstream. The target highest temporal identifier is equal to a greatest temporal identifier present in the operation point representation, the target highest temporal identifier being less than or equal to a greatest temporal identifier present in the bitstream. The device decodes network abstraction layer (NAL) units of the operation point representation.

Abstract: A video encoder generates a bitstream that includes a syntax element that indicates whether a picture is encoded according either a first coding mode or a second coding mode. In the first coding mode, the picture is entirely encoded using wavefront parallel processing (WPP). In the second coding mode, each tile of the picture is encoded without using WPP and the picture may have one or more tiles. A video decoder may parse the syntax element from the bitstream. In response to determining that the syntax element has a particular value, the video decoder decodes the picture entirely using WPP. In response to determining that the syntax element does not have the particular value, the video decoder decodes each tile of the picture without using WPP.

Abstract: A stereoscopic image display device comprising: a parallax information acquisition device configured to acquire parallax information for each of a plurality of face regions present in different view point images; a display method selection device configured to select a display method of the plurality of face regions; a face region selection device configured to select a specific face region out of the plurality of face regions according to the display method selected by the display method selection device; a parallax adjustment device configured to adjust a parallax amount of the specific face region in the view point image based on the parallax information of the specific face region selected by the face region selection device; and a display controller displaying a stereoscopic image on a predetermined display device based on the view point image in which the parallax amount of the specific face region is adjusted by the parallax adjustment device.

Abstract: A multimodal camera and a method for selecting an operation mode of a camera, the method comprising: sensing scene lighting; detecting movement of the camera including detection of rotational movement for Panorama photography; detecting selection of a selector of the camera, the selector being for selecting between a first set of one or more operation modes based on scene lighting and a second set of one or more operation modes based on movement of the camera; and selecting one of the operation modes from the first and second sets of one or more operation modes based on conditions defined by data associated with the movement of the camera, the scene lighting, and the selection of the selector.

Abstract: An image coding method includes: adding, to a candidate list, a first adjacent motion vector as a candidate for a predicted motion vector to be used for coding the current motion vector; selecting the predicted motion vector from the candidate list; and coding the current motion vector, wherein in the adding, the first adjacent motion vector indicating a position in a first reference picture included in a first reference picture list is added to the candidate list for the current motion vector indicating a position in a second reference picture included in a second reference picture list.

Abstract: In one example, a device for coding video data includes a video coder configured to determine whether a transform coefficient of a video block is a DC transform coefficient, when the transform coefficient is determined to be the DC transform coefficient of the video block, determine a context for coding the transform coefficient based on the transform coefficient being the DC transform coefficient without regard for a size of the video block, and entropy code the transform coefficient using the determined context.

Abstract: Machine vision based obstacle avoidance system is provided. The system utilizes a CCD camera to capture an image. A normalized image and dynamic masking is used in object detection.

Abstract: Provided is an imaging device which can accurately obtain two captured image signals having a phase difference therebetween. An imaging device includes a plurality of pixels including two types of pixels, such as a first pixel that receives one of a pair of light beams which pass through different pupil regions of an imaging optical system and a second pixel that receives the other of the pair of light beams. The plurality of pixels are arranged in a square lattice shape. A light receiving region of the first pixel deviates from the center of the first pixel to the right side. A light receiving region of the second pixel deviates from the center of the second pixel to the left side.

Abstract: Embodiments are directed towards enabling digital cameras to digitally process captured two dimensional image sequences at a real time video rate, to convert the two dimensional image sequences into stereoscopic three dimensional image sequences. In one embodiment, using a pipelining architecture, various statistics are obtained for a captured two dimensional sequence. The statistics are used to estimate depth within each frame image within the sequence, in real time. Using the depth data a disparity map is generated that is provided to a warping component to generate a second perspective of the two dimensional image. The two images for the frame provide a three dimensional perspective for the frame within the sequence. Together the two perspective images for the frame are provided to a video encoder component to encode the stereoscopic three dimensional frame for the sequence.

Abstract: A mobile apparatus obtains a posted data set of a social networking service. The mobile apparatus generates an augmented reality image by superimposing, on a captured image, an icon representing a posted data set posted in an objective capturing range of a camera, based on a posted location of the posted data set, a vehicle location of a vehicle, and a direction of an optical axis of the camera. The mobile apparatus transmits the generated augmented reality image to a vehicle-mounted apparatus. The vehicle-mounted apparatus displays the received augmented reality image on a display. Thus a user who sees the vehicle-mounted apparatus can instinctively understand the posted location of the posted data set.

Abstract: A method of determining the coding parameters of a variable-resolution video stream by a video coder, said video stream including multiple resolution layers and being compressed so as to be transmitted at a given rate or a given quality through a heterogeneous network to multiple users, said method including a classification step to associate each resolution level with a group of users and to determine the optimal coding parameters for each resolution level as a function of the requirements of each group of users.

Abstract: The present principles relate to a hypothetical reference decoder (HRD) for a Scalable Video Coding extension for a compression algorithm. One such implementation proposes to modify the H.264/AVC HRD for use with the SVC of AVC. That implementation defines HRD constraints for each interoperability point of SVC. One implementation in particular is described, but other implementations are possible and are contemplated by the present principles. The changes for spatial, temporal, and SNR scalability are shown. There are also changes to the related HRD parameters followed that are shown. The several mentioned implementations provide rules for an HRD for SVC. At least one implementation proposes the SVC-HRD rules as modifications to the AVC-HRD rules. A user may use the proposed SVC-HRD rules to build an SVC-HRD and test a bitstream for SVC compliance.

Abstract: The present invention is applied for an image capturing device having a light source and a camera that captures an image of a measurement subject placed in an optical path that lies between said camera itself and said light source. The image capturing device according to the present invention includes a control unit that subtracts a plurality of frame images captured by said camera during an OFF period of said light source from a plurality of frame images captured by said camera during an ON period of said light source, the number of frame images captured by said camera during the OFF period being the same as that number of frame images obtained by said camera during the ON period and integrates the differences between their images.

Abstract: A method begins by a processing module receiving data for dispersed storage, wherein the data has an associated user identification (ID), and obtaining a codec flag based on the associated user ID. The codec flag may indicate one or more codec types and a codec execution order. The codec types may include two or more of: a null data manipulation, one or more versions of a data integrity function, one or more versions of a compression function, and/or one or more versions of an encryption function. The method continues with the processing module manipulating the data to produce manipulated data utilizing the one or more codec types in the codec execution order, encoding the manipulated data using an error coding dispersal storage function to produce a plurality of encoded data slices, and sending the slices and codec flag to a plurality of DS storage units for storage.

Abstract: Apparatus and methods for imaging and characterizing materials when performing subterranean operations are disclosed. A method for analyzing gaseous emissions from a subterranean formation comprises positioning a hyperspectral image capturing mechanism to monitor an area of interest and detecting presence of one or more materials of interest in the area of interest using the hyperspectral image. The amount of the one or more materials of interest in the area of interest is then quantified.

Abstract: The present invention is applied for an image capturing device having a light source and a camera that captures an image of a measurement subject placed in an optical path that lies between said camera itself and said light source. The image capturing device according to the present invention includes a control unit that subtracts a plurality of frame images captured by said camera during an OFF period of said light source from a plurality of frame images captured by said camera during an ON period of said light source, the number of frame images captured by said camera during the OFF period being the same as that number of frame images obtained by said camera during the ON period and integrates the differences between their images.

Abstract: A stereoscopic image display and a method of driving the same are disclosed. The stereoscopic image display includes shutter glasses including a left eye shutter and a right eye shutter that are alternately turned on and off in synchronization with a display device, a backlight unit that irradiates light to the display device and is periodically turned on and off, a controller that divides a first frame period into a first address period and a first vertical blanking period, divides a second frame period into a second address period and a second vertical blanking period, and controls so that durations of the first vertical blanking period and the second vertical blanking period are different from each other, and a driving circuit that supplies data to the display device during the first and second address periods under the control of the controller.

Abstract: An image pickup apparatus includes an image pickup device that converts an image entering through a lens system into a captured image; a display unit that displays an image with a first field angle obtained from the captured image that is currently being shot; a moving distance detecting unit that detects a moving distance between images with the first field angle based on a plurality of images with the first angle sequentially captured; a partial image storing unit that stores an image with a second field angle that is less than the first field angle; and a panorama composing unit that composes a panoramic image based on a plurality of images with the second field angle stored in the partial image storing unit and the moving distances between the images with the first field angle that are respectively associated with the plurality of images with the second field angle.

Abstract: Present invention provides a single-eye stereoscopic image capturing device which can reduce the discomfort of a photographer by constantly maintaining a parallax quantity of a left-eye image and a right-eye image that are stereoscopically-displayed even if a focus lens is moved. The single-eye stereoscopic image capturing device comprises, a photographic optical system, pupil division part, imaging part, focus lens driving part, parallax correction quantity calculation part, parallax correction part, and output part.

Abstract: An image coding method includes: adding, to a candidate list, a first adjacent motion vector as a candidate for a predicted motion vector to be used for coding the current motion vector; selecting the predicted motion vector from the candidate list; and coding the current motion vector, wherein in the adding, the first adjacent motion vector indicating a position in a first reference picture included in a first reference picture list is added to the candidate list for the current motion vector indicating a position in a second reference picture included in a second reference picture list.