Abstract: When packing a video frame of a higher-resolution chroma sampling format such as YUV 4:4:4 into frames of a lower-resolution chroma sampling format such as YUV 4:2:0, a computing device performs wavelet decomposition (or other band separation filtering) on sample values of chroma components of the higher-resolution frame, producing sample values of multiple bands. The device assigns the sample values of the bands to parts of the lower-resolution frames. During corresponding unpacking operations, a computing device assigns parts of the frames of the lower-resolution chroma sampling format to sample values of multiple bands. The device performs wavelet reconstruction (or other inverse band separation filtering) on the sample values of the bands, producing sample values of chroma components of the frame of the higher-resolution chroma sampling format.

Abstract: Systems and methods for executing super-resolution microscopy of a specimen with most of the image processing performed in a camera of a fluorescence microscopy instrument are described. In one aspect, the camera includes one or more processors to execute machine-readable instructions that control excitation light output from a multi-channel light source, control capture of intermediate images of the specimen, and perform image processing of the intermediate images to produce a final super-resolution image of the specimen.

Abstract: The present invention relates to a system, a device, and vehicle for recording panoramic images. According to the present invention, panoramic images can be obtained using a plurality of optical cameras and light directing elements which are arranged based on a parabola. This allows a compact device to be obtained while ensuring that each camera records a partial image as if it were at substantially the same focus point as the other cameras. By arranging the plurality of cameras and light directing elements such that the respective focus points are slightly offset relative to each other, a slight overlap between adjacent field of views can be obtained to improve stitching of the partial images to from the panoramic image.

Abstract: An electronic device including an image sensor, a phase difference autofocus (AF) sensor module, a reflection-type infrared (IR) cut-off filter, and an absorption-type IR cut-off filter, wherein the reflection-type IR cut-off filter is disposed on an optical axis to reflect a first portion of light incident thereon through an imaging lens to the phase difference AF sensor module and to allow a second portion of the light to be transmitted therethrough, the absorption-type IR cut-off filter is disposed between the image sensor and the reflection-type IR cut-off filter on the optical axis to filter the second portion of the light transmitted through the reflection-type IR cut-off filter, and the phase difference AF sensor module performs auto-focusing on a subject using the first portion of the light reflected from the reflection-type IR cut-off filter.

Abstract: An e-Petri dish comprising a transparent layer having a specimen surface and a light detector configured to sample a sequence of sub-pixel shifted projection images of a specimen located on the specimen surface. The sub-pixel shifted projection images associated with light from a plurality of illumination angles provided by an illumination source.

Abstract: In the segmentation of an image into spatial regions, an image region is identified by forming difference-image pixel values from the chosen image and at least one other image in the image sequence and accumulating those difference-image pixel values horizontally and vertically. Co-located horizontal and vertical accumulations are combined and utilized in identifying the region. Difference-image pixel values can also be accumulated along other lines which pass through a point of interest.

Abstract: A method of generating new views for a multi-view display system includes receiving a block-based disparity estimate between left image data and right image data for a frame of image data at a processor, upscaling the block-based disparity estimate to a pixel-based disparity for each pixel in the image date, performing motion vector based disparity interpolation and image interpolation simultaneously to produce left and right side interpolated data, and generating at least one new view using left and right side interpolated data.

Abstract: The image measurement device includes: a side-emitting illumination device that has a light amount distribution sharply changing in a photographing axis direction of a camera, and irradiates a workpiece on a movable stage with illumination light from a side; a measurement target place specifying part that specifies a measurement target place on a workpiece image; an illumination position adjusting part that moves the side-emitting illumination device in the photographing axis direction, to adjust a relative position of the side-emitting illumination device to the movable stage; a relative position identifying part that obtains a change in luminance in the measurement target place with respect to two or more of the workpiece images photographed by making the relative position different, to identify a relative position; an imaging control part that controls the illumination position adjusting part based on the identified relative position and drives the side-emitting illumination device.

Abstract: A point-of-sale demonstration system includes a display system for viewing the underside of the plunger matrix mattress allowing a person sitting or lying on the mattress to readily view the impression created by their body weight on the plungers. The display system includes a camera positioned to image the underside of the mattress and a monitor (display screen) positioned for viewing by a person lying on the mattress so that they can see the deflection in the bottom of the plungers caused by their own weight on the mattress. Seeing the image of the downwardly displaced plungers immediately conveys the operation of the plunger matrix mattress to the viewer. The system may also be configured to capture individual frames and video images, store the images, transmit the images, and edit as desired, for example by zooming, cropping, changing the speed of the video, and so forth.

Abstract: A system and method for generating and displaying a video animation or replay of a user's drive or run using data from sensors, mapping data, manufacturer data, environmental data, and/or user data. The video replay shows an avatar representing the user or the user's vehicle and may also show the surrounding environment through which the user traveled. The video replay may be used for entertainment, instruction, insurance, or law enforcement purposes, for example.

Abstract: The image measurement device includes: a measurement target place specifying part that specifies a measurement target place on a workpiece image based on a user's operation; an illumination condition storage part that holds two or more illumination conditions; an imaging control part that controls a camera and an illumination device to acquire two or more of the workpiece images sequentially photographed while making the illumination condition different; a workpiece image display part that displays the acquired plurality of workpiece images; a workpiece image selecting part that selects any one of the displayed workpiece images; an illumination condition deciding part that decides the illumination condition based on the selected workpiece image; and a dimension calculating part that extracts an edge of the measurement target place based on the workpiece image photographed on the decided illumination condition, and obtains a dimension of the measurement target place based on the extracted edge.

Abstract: A moving image encoding device includes determining whether an orthogonal transformation coefficient to which orthogonal transformation processing has been executed is equal to or less than a threshold determined from a quantization step used for quantization processing, and first calculating an encoding error from a first coefficient determined to be the threshold or less among the orthogonal transformation coefficients and the number of second coefficients determined to be larger than the threshold, and estimating, from the number of the second coefficients, an information amount generated when variable length encoding processing is executed to the orthogonal transformation coefficient after execution of the quantization processing, and second calculating an encoding cost from the encoding error and the information amount.

Abstract: A prediction unit is identified within a picture of a video sequence. The prediction unit is bordered by neighboring prediction units within the picture. The neighboring prediction units include first and second neighboring prediction units that are separated from one another by at least a third neighboring prediction unit. A subset of the neighboring prediction units is scanned to identify an MVP candidate. The subset includes at least the first and second neighboring prediction units and excludes at least the third neighboring prediction unit. An encoder calculates a difference between a motion vector of the MVP candidate and a motion vector of the prediction unit, and encodes the difference and an index to identify the MVP candidate. A decoder decodes the difference, and calculates the motion vector of the prediction unit by adding the difference to the motion vector of the MVP candidate.

Abstract: A contents output system capable of outputting contents and a method for sharing codec information for outputting the contents in the system are provided. The method for sharing codec information in a contents output system includes sharing, when a media server, a media renderer for outputting contents, and a control point are connected, codec information provided by the media server and the codec information of contents playable by the media renderer, and providing, at the media server, the contents to the media renderer according to the shared codec information.

Abstract: A filter intensity calculated in accordance with the image quality deterioration degree between an original image and locally decoded image is corrected in accordance with pattern information of the locally decoded image, and deblocking filter processing is performed by using the corrected filter intensity. The deblocking filter processing is performed by using a filter intensity which is calculated in accordance with the image quality deterioration degree between the original image and locally decoded image and the flatness of the original image or locally decoded image, and which increases as the image quality deterioration degree and flatness of an image increase.

Abstract: A video coder can be configured to receive in a video parameter set, one or more syntax elements that include information related to hypothetical reference decoder (HRD) parameters; receive in the video data a first sequence parameter set that includes a first syntax element identifying the video parameter set; receive in the video data a second sequence parameter set that includes a second syntax element identifying the video parameter set; and, code, based on the one or more syntax elements, a first set of video blocks associated with the first parameter set and second set of video blocks associated with the second parameter set.

Abstract: An image pickup unit for endoscope of the invention includes: an image pickup device including on a front face a plurality of electrode pads aligned along one side face; and a circuit substrate having an end face from which a lead group, a distal end portion of which is bonded to the plurality of electrode pads, is extended, wherein the end face of the circuit substrate is disposed more rearward than a rear face of the image pickup device, the lead group includes a first lead constituted of at least one of a lead connected to an image pickup device reference electric potential and a dummy lead which does not include an electrical function, and another second lead, and the first lead is closer to the edge portion where the rear face and the side face of the image pickup device intersect than the second lead is.

Abstract: A prediction unit is identified within a picture of a video sequence. The prediction unit is bordered by neighboring prediction units within the picture. A match for the prediction unit is located within a first reference picture. At least a subset of the neighboring prediction units is scanned to identify a motion vector predictor (“MVP”) candidate. The MVP candidate of a first type is identified if available, wherein a match for the MVP candidate of the first type is located within the first reference picture. In response to the MVP candidate of the first type being unavailable, the MVP candidate of a second type is identified, wherein a match for the MVP candidate of the second type is located within a second reference picture. An encoder calculates a difference between a motion vector of the MVP candidate and a motion vector of the prediction unit, and encodes the difference and an index to identify the MVP candidate.

Abstract: Generally, the present disclosure provides a method and system for improving imaging efficiency for CPB systems while maintaining or improving imaging accuracy over prior CPB systems. A large field of view image of a sample is acquired at a low resolution and thus, at high speed. The low resolution level is selected to be sufficient for an operator to visually identify structures or areas of interest on the low resolution image. The operator can select one or more small areas of arbitrary shape and size on the low resolution image, referred to as an exact region of interest (XROI). The outline of the XROI is mapped to an x-y coordinate system of the image, and the CPB system is then controlled to acquire a high resolution image of only the XROI identified on the low resolution image. For 3D imaging, once the XROI is identified, each section of the sample can be iteratively imaged in the previously described manner, with the operator having the option to redefine the XROI later.

Abstract: A display apparatus and a display method using the same are provided. The display apparatus includes a curved display, a guide member on which the curved display is mounted to slidably move and configured to provide a curved concave path formed with respect to a user, and a driver configured to move the curved display along the guide member. The guide member includes left and right frames vertically disposed at intervals, a lower rail of which both ends are coupled to lower ends of the left and right frames, and an upper rail of which both ends are coupled to upper ends of the left and right frames and which is parallel to the lower rail.