Abstract: A video processing apparatus is provided. The video processing apparatus includes: a storage configured to store a video captured by a camera; and a controller configured to separate a target object from a background image in each of a plurality of key frames contained in the video, stitch separated background images to generate a panoramic background image, synthesize the target object with the panoramic background image to acquire a plurality of panoramic images corresponding to the plurality of key frames, and combine the panoramic images in a time axis to generate a panoramic video.

Abstract: Display method and system for converting 2D image into multi-viewpoint image is disclosed, comprising: acquiring and tagging a target object within a 2D image; calculating a depth value according to a frequency component; generating a layered image before viewing from different preset viewpoints; tagging a viewpoint image; estimating before filling a pixel in a blank area of a virtual viewpoint image, based on a depth value difference of the layered image, generating and saving sequentially a single-viewpoint image output, before detecting and filling a blank area in it; detecting before smoothing a sudden change area; assembling to form a synthesized image, processing and sending to a naked-eye 3D display screen for displaying. It converts a 2D image to a multi-viewpoint image, provides a naked-eye 3D display, reduces image distortion, easy and convenient to use, with a low cost.

Abstract: A panoramic image stitching method includes acquiring a plurality of first images, converting camera image plane coordinates of each first image of the plurality of first images into virtual image plane coordinates for generating a second image according a world coordinate system, identifying a plurality of feature points on the second image, calibrating coordinates of the plurality of feature points on the second image, generating a calibrated second image according to calibrated coordinates of the plurality of feature points on the second image, and stitching a plurality of calibrated second images for generating a panoramic image.

Abstract: Innovations in syntax and semantics of coded picture buffer removal delay (“CPBRD”) values potentially simplify splicing operations. For example, a video encoder sets a CPBRD value for a current picture that indicates an increment value relative to a nominal coded picture buffer removal time of a preceding picture in decoding order, regardless of whether the preceding picture has a buffering period SEI message. The encoder can signal the CPBRD value according to a single-value approach in which a flag indicates how to interpret the CPBRD value, according to a two-value approach in which another CPBRD value (having a different interpretation) is also signaled, or according to a two-value approach that uses a flag and a delta value. A corresponding video decoder receives and parses the CPBRD value for the current picture. A splicing tool can perform simple concatenation operations to splice bitstreams using the CPBRD value for the current picture.

Abstract: Light in a first emitting direction is irradiated on an observation target from a light projecting section and light from the observation target is received by an imaging section via an objective lens while a focal position of the light is changed in an optical axis direction of the objective lens, whereby a plurality of first original image data are generated in a plurality of focal positions. Light in a second emitting direction different from the first emitting direction is irradiated on the observation target from the light projecting section, whereby a plurality of second original image data are generated. First and second focused image data are respectively acquired on the basis of the pluralities of first and second original image data.

Abstract: Systems and method are provided for a towing vehicle towing a trailer having at least one imaging device. A method includes: receiving, from a first imaging device coupled to the trailer, a first image stream having a plurality of first images; receiving, from a second imaging device coupled to the vehicle, a second image stream having a plurality of second images; determining, at least one common feature between a first image of the first images and a second image of the second images; determining a first distance from the first imaging device to the at least one common feature and a second distance from the second imaging device to the at least one common feature; and determining, a position of the first imaging device relative to the vehicle based on the first distance, the second distance and a known position and pose of the second imaging device.

Abstract: A method and apparatus for coding a depth block in three-dimensional video coding are disclosed. Embodiments of the present invention divide a depth block into depth sub-blocks and determine default motion parameters. For each depth sub-block, the motion parameters of a co-located texture block covering the center sample of the depth sub-block are determined. If the motion parameters are available, the motion parameters are assigned as inherited motion parameters for the depth sub-block. If the motion parameters are unavailable, the default motion parameters are assigned as inherited motion parameters for the depth sub-block. The depth sub-block is then encoded or decoded using the inherited motion parameters or a motion candidate selected from a motion candidate set including the inherited motion parameters. The depth block may correspond to a depth prediction unit (PU) and the depth sub-block corresponds to a depth sub-PU.

Abstract: A viewfinder apparatus includes a window on which a reference mark is disposed; a photography unit (e.g., an eye imaging camera) configured to photograph eyes of a user via the window; and a controller configured to detect a location where the photography unit has been moved, based on a location of the reference mark included in a first image captured by the photography unit before the photography unit is moved and a location of a reference mark included in a second image captured by the photography unit after the photography unit is moved, wherein the controller tracks the eyes of the user by using the detected location.

Abstract: A vehicular vision system includes a side-mounted camera disposed at a side of the vehicle. Responsive to (a) actuation of a user input by a driver of the vehicle and/or (b) traveling speed of the vehicle, the vehicular vision system adjusts the side-mounted camera between (i) capturing image data representative of a ground region at the side of the vehicle and (ii) capturing image data representative of regions further away from the vehicle. With the side-mounted camera adjusted to capture image data representative of the ground region at the side of the vehicle, the vehicular vision system may use captured image data for displaying video images at a display device viewable by the driver of the vehicle. With the side-mounted camera adjusted to capture image data representative of regions further away from the vehicle, the vehicular vision system processes captured image data for a driver assistance system of the vehicle.

Abstract: The present invention relates to a video encoding method and apparatus for setting and encoding quantization parameters, and to a video decoding method and apparatus for decoding and setting quantization parameters in a video encoding and decoding apparatus which uses blocks having various sizes and depths as encoding and decoding units.

Abstract: An imaging device includes a first imaging section, a second imaging section and an image data acquiring section. The first imaging section includes a first lens. The second imaging section includes a second lens. The second lens has an angle of view wider than the first lens. The image data acquiring section acquires first image data of a subject captured by the first imaging section, second image data of the subject captured by the second imaging section, and a pair of image data having parallax based on the first image data and the second image data.

Abstract: Video encoders and decoders and video encoding and decoding methods are provided. A video encoder includes an input buffer configured to receive a video data stream and to supply current frame data, a frame buffer configured to store reconstructed frame data, and an encoder circuit configured to read reference frame data from the frame buffer, to encode the current frame data received from the input buffer using the reference frame data and to write the reconstructed frame data to the frame buffer. The encoder circuit may be configured to write the reconstructed frame data by overwriting the reference frame data in the frame buffer.

Abstract: A machine system includes monitor devices each having a camera, the monitor devices distributed over a physical area; layout logic forms images from the cameras of the monitor devices into a scene layout for the area; user interface logic receives training signals from sensors directed to a person physically present in the area and to correlate those signals to subareas of the layout; and analytical logic analyzes the layout and training signals to ascertain subareas of the area at which the monitor devices should focus machine sensor and processing resources.

Abstract: An image capturing device is provided comprising an image sensor for capturing a first image of a scene, a light source for illuminating the scene with a first flash of coded light, and a network interface for communicating with a communications network and/or a further image capturing device. The device is operative to encode information into the first flash, enabling retrieval of the first image from a first data storage, capture the first image, and store the first image in the first data storage. Optionally, the device may be operative to detect a second flash of coded light emitted by the further image capturing device, decode information enabling retrieval of a second image captured by the further image capturing device from a second data storage, retrieve the second image, and create a 3D model from the first image and the second image.

Abstract: Multi-spectrum imaging systems and methods are provided to imaging in multiple spectrums, e.g., thermal IR (infrared) at 4 ?m and 10 ?m wavelengths, near-IR, and visible light, all on a same optical centerline. For example, an imaging system includes a first imager and a second imager. The first imager includes an array of thermal IR detectors, wherein the first imager is configured to receive incident photonic radiation and generate a thermal IR image, wherein each thermal IR detector comprises a photon absorber member that is configured to absorb thermal IR photonic radiation from the incident photonic radiation, and reflect remaining photonic radiation in the incident photonic radiation along an optical path of the imaging system. The second imager is disposed in said optical path of the imaging system, wherein the second imager is configured to receive the remaining photonic radiation reflected from the first imager and generate a second image.

Abstract: The invention relates to annotating live video during endoscopy medical procedures.

Abstract: An image capturing apparatus according to an exemplary embodiment includes a touch panel unit that detects a touch operation. When a user touches the touch panel unit while the image capturing apparatus is in a mode of tracking a predetermined object, a system control unit sets an object search area for searching for the predetermined object. The system control unit sets the tracking area based on a difference between information corresponding to a distance to an object calculated by an image calculation unit for the object search area and information corresponding to a distance to an object that has previously been tracked.

Abstract: Systems, methods, and computer readable mediums are provided to generate a number of targets for a panoramic image, each of the targets defining a portion of the panoramic image, monitor a position of a user device with respect to a current target, responsive to determining that the user device is properly positioned with respect to the current target, capture a first image for the current target using a camera of the user device, monitor the position of the user device with respect to a next target, responsive to determining that the user device is properly positioned with respect to the next target, capture a second image for the next target using the camera of the user device; and generate the panoramic image using the first image and the second image.

Abstract: An image pickup apparatus that is capable of suppressing degradation of image quality even when the orientation of a photographing lens is changed in a state in which a dome is attached to the image pickup apparatus. A dome attaching/detaching mechanism detachably holds a dome which is transparent and has a hemispherical shape. An image pickup unit is arranged inside the dome and is capable of changing an orientation of a lens group by a tilt mechanism. An image processor performs correction processing on an image photographed by the image pickup unit. The image processor performs image quality correction according to the orientation of the lens group.

Abstract: Depth information may be encoded into pixels of visual imaging data according to steganographic techniques. The depth information may be captured simultaneously with the visual imaging data, and one or more representative pixels may be identified within a region or sector of the visual imaging data according to a pixel traversal strategy. The depth information corresponding to the region or sector may be encoded into one or more least significant bits of the representative pixels, and a modified set of imaging data including the visual imaging data with the depth information encoded into the representative pixels may be stored in a data store and used for any relevant purpose.