Abstract: Dimensioning systems may automate or assist with determining the physical dimensions of an object without the need for a manual measurement. A dimensioning system may project a light pattern onto the object, capture an image of the reflected pattern, and observe changes in the imaged pattern to obtain a range image, which contains 3D information corresponding to the object. Then, using the range image, the dimensioning system may calculate the dimensions of the object. In some cases, a single range image does not contain 3D data sufficient for dimensioning the object. To mitigate or solve this problem, the present invention embraces capturing a plurality of range images from different perspectives, and then combining the range images (e.g., using image-stitching) to form a composite range-image, which can be used to determine the object's dimensions.

Abstract: Systems, methods, and computer-readable media to improve multi-image color-refinement operations are disclosed for refining color differences between images in a multi-image camera system with application to disparity estimation. Recognizing that corresponding pixels between two (or more) images of a scene should have not only the same spatial location, but the same color, can be used to improve the spatial alignment of two (or more) such images and the generation of improved disparity maps. After making an initial disparity estimation and using it to align the images, colors in one image may be refined toward that of another image. (The image being color corrected may be either the reference image or the image(s) being registered with the reference image.) Repeating this process in an iterative manner allows improved spatial alignment between the images and the generation of superior disparity maps between the two (or more) images.

Abstract: An apparatus is configured to perform a method for screen content encoding. The method includes deriving a palette table and a color index map based on a coding unit (CU). The method also includes encoding the palette table and encoding the color index map. The method further includes combining the encoded palette table and the encoded color index map for transmission to a receiver, where the palette table and index map are decoded to reconstruct a pixel block.

Abstract: Depth camera-based human subject detecting includes receiving an image captured by a depth camera, converting the image, in a depth camera coordinate system, to an image in a real space coordinate system based on an angle and a position of the depth camera relative to at least one subject of the image, detecting at least one subject from the image in the real space coordinate system, calculating a distance from the depth camera to the at least one subject based on the image in the real space coordinate system and determining whether the at least one subject is a person using criteria that varies depending on the respective distance from the depth camera to the at least one subject.

Abstract: QP control information valid for a block of samples is parsed. A QP to use for the block of samples is derived according to a first QP derivation process independent on the QP control information if residual data of the block of samples is not color transformed and according to a second QP derivation process dependent on the QP control information if the residual data of the block of samples is color transformed. The embodiments thereby decouple QP parameters for blocks of samples that are coded with color transform and those that are coded without color transform. This decoupling achieves better flexibility during encoding and results in better visual quality.

Abstract: One or more embodiments are directed to apparatuses and methods of evaluating an endface of an optical communication link, such as a fiber optic cable. In at least one embodiment, a camera probe includes an imaging device that includes one or more feedback mechanisms, such as an alignment feedback mechanism that communicates alignment information regarding an alignment of the optical communication link under test with an image sensor of the camera probe. The alignment feedback mechanism may be visual and/or aural. The alignment feedback mechanism may provide directional information to the user indicative of a direction to move the imaging device relative to the optical communication link. In addition or alternatively, the feedback mechanism may include a focus feedback mechanism that communicates focus information regarding a focus of the endface in an obtained image of the endface.

Abstract: An in-vivo monitoring camera system that includes: a camera support tube (13) of which one end part is introduced into a body; a camera unit (11) which joins with the camera support tube in the body; a joining portion which joins the camera unit and the support tube to each other; a camera side cable (12) which is connected to the camera unit, and is drawn out toward the outside of the body through the camera support tube; a control system which is on the outside of the body, is connected to the camera side cable, and includes at least a display apparatus; and a cooling system (77) which cools the camera support tube to which heat of the imaging unit is transferred.

Abstract: Aspects of the present disclosure are directed to tracking authorized individuals, and identifying the presence of unauthorized individuals. As may be consistent with one more embodiments, respective cameras capture images of regions of a common premises, and a filter circuit detects the presence of individuals in the images, and filters the detected presence as follows. The location of one or more authorized users are tracked relative to the premises via location-based information indicative of each authorized user's location. Each detected individual's location is identified and compared to the tracked location of the at least one authorized user. The detected individual is identified as being an unauthorized individual in response to the comparison indicating that the identified location is not common to the tracked location.

Abstract: Systems and methods are provided for detecting overexposure of skin to ultraviolet light. A system may include a thermal imaging module that captures thermal images of a person's skin. Using the thermal images, the system may determine whether the person's skin has been or is being overexposed to ultraviolet light. The system may be a fixed camera system for monitoring an outdoor area, may be a mobile device having a thermal imaging module within or coupled to the mobile device, or may be part of a tanning system having an ultraviolet light source and a thermal imaging module. The overexposure may be detected in a thermal image based on a temperature of the person's skin, a change in the temperature of the person's skin over time or a temperature difference between portions of the person's skin.

Abstract: An imaging module includes: an imaging unit including a light receiving unit having a plurality of pixels arranged in a specified shape including a lattice shape and configured to receive light and to perform photoelectric conversion on the received light, the imaging unit being configured to capture an image of a subject and to output the image as a light quantity signal; a signal processing unit configured to perform signal processing on the light quantity signal; and a flexible substrate which includes a bendable insulating film and on which the imaging unit and the signal processing unit are mounted. The flexible substrate is bent to arrange the signal processing unit and the flexible substrate in a space extending from an outer edge of an incident surface of the imaging unit in a direction perpendicular to the incident surface while maintaining a shape of the outer edge.

Abstract: The present invention relates to an RGB-IR sensor, and a method and an apparatus for obtaining a 3D image by using the same. The RGB-IR sensor according to the present invention comprises: a first pixel basic unit including one of each of R, G, B and IR pixels; and a second pixel basic unit in which the R, G, B and IR pixels are arranged in a different order from those in the first pixel basic unit, wherein the RGB-IR sensor is comprised by alternately arranging the first pixel basic unit and the second pixel basic unit in a horizontal direction, and wherein R, G, B and IR pixel arrangements in the first pixel basic unit and the second pixel basic unit are determined so that the position of IR-pixels in the RGB-IR sensor are not equidistance apart from each other.

Abstract: The present invention provides CPU load reduction and a method of efficient image data transfer. An image processing device, which comprises an image generating unit (203) which further comprises a plurality of processing units which process a plurality of instances of image information and in where the image generating unit (203) transfers accumulated data for each interrupt factor, comprises: data transfer units for each factor (208-212) which accept the interrupts from the image generating unit (203) for each interrupt factor and transfer the data for each interrupt factor, and notifies a CPU (207) of the interrupt when the transfer of the data to be transferred for each interrupt factor is completed; and a communication line (1) which is connected to the image generating unit (203) and the data transfer units for each factor (208-212).

Abstract: A light source apparatus includes a main unit, light source modules attachable to and detachable from the main unit, and storage mediums storing characteristic information of the light source modules. Each light source module includes at least one light source and a light connection part to be optically connected to the main unit. The main unit includes entrance parts to be optically connected to the light connection parts of the connected light source modules, a light combining unit to combine light entering the entrance parts, at least one exit part to cause light combined by the light combining unit to exit, and an exit light characteristic deriving unit to derive characteristic information of achievable exit light based on characteristic information of the light source modules stored in the storage mediums.

Abstract: A vision system of a vehicle includes a camera configured to be disposed at a vehicle so as to have a field of view exterior of the vehicle. The camera includes an imager and a lens. The imager includes a pixelated imaging array having a plurality of photosensing elements. With the camera disposed at the vehicle, the lens has an outer surface that is exposed to an environment exterior of the vehicle, and the outer surface of the lens includes a central portion and a lower portion, with the lower portion below the central portion when the camera is disposed at the vehicle. A water removal element is disposed at the lower portion of the lens. The water removal element is configured to cause a water droplet that collects at the lower portion of the outer surface of the lens to drain from the outer surface of the lens.

Abstract: A database stores reference photographs of an assembly. The reference photographs are from different orientations relative to the assembly. By matching the query photograph to one or more of the reference photographs, the pose of the assembly in the query photograph is determined. Based on the pose, the pixels of the two-dimensional query photograph are related to a three-dimensional representation from engineering data. Using labeled parts from the engineering data, the parts represented in the query photograph are identified, and part information (e.g., segmentation, number, or other metadata) is provided relative to the query photograph.

Abstract: The present disclosure improves 3D representation (by means of adjusting disparity between pictures) in stereoscopic or autostereoscopic images in order to better fit the natural viewing geometry by modifying each image of a stereo pair with a geometric transform centered on an intersection point of an imaging plane and a gaze direction for each of eyes. An observer's view is modeled independently for the left and right eyes, and the left and right views are processed independently with the goal to re-align pixel directions for each of eyes to make these directions more in correspondence with natural vision for the observer.

Abstract: A method is disclosed of capturing an image of a wound on a subject for wound assessment. The method includes obtaining an image of a portion of the subject with one or more cameras; displaying the image on a display panel on an imaging device; obtaining a stored condition from a memory; obtaining a present condition; comparing the stored condition and the present condition; displaying a crosshair over the image on the display panel when it is decided that the present condition corresponds to the stored condition on the basis of the comparison; receiving an instruction for capturing; and capturing an image of the wound in response to the received instruction.

Abstract: A video processing system includes a video encoder that encodes a video stream into an independent video layer stream and a first dependent video layer stream based on a motion vector data or grayscale and color data.

Abstract: A system for detecting high-energy photons includes a pixelated image detector exposed to visible light and high-energy photons, and the pixelated image detector generates one or more images from the exposure to the visible light and high-energy photons. The system further includes one or more processors operably connected to the pixelated image detector and configured to perform operations on the one or more images to discriminate between visible light and high-energy photons. A method for detecting high-energy photons includes exposing a pixelated image detector to visible light and high-energy photons and discriminating between the visible light that interacts with the pixelated image detector and the high-energy photons that interact with the pixelated image detector.

Abstract: Various exemplary embodiments related to an electronic apparatus and a method for taking a photograph in the electronic apparatus are disclosed, and according to an exemplary embodiment, the electronic apparatus may include a display that displays a screen; a depth sensor that outputs a first image signal and depth information; an image sensor that outputs a second image signal; and a control unit that controls to display a preview screen on the display using the first image signal, obtain both depth information of a photographing moment and an image of the photographing moment using the second image signal in response to a request of photographing, and store the image and the depth information. Also, other various exemplary embodiments may be possible.