Abstract: According to an embodiment, an encoding device includes a deriving unit and an encoding unit. The deriving unit is configured to derive a first reference value based on fixed point precision representing roughness of a weighting factor that is used for multiplying a reference image. The encoding unit is configured to encode a first difference value that is a difference value between the weighting factor and the first reference value and the fixed point precision. The weighting factor is included in a first range of predetermined bit precision having the first reference value at approximate center. The first difference value is in the predetermined range.

Abstract: A method and a circuit for adaptive loop filtering in a video coding system are described. The method can include receiving a block of samples generated from a previous-stage filter circuit in a filter pipeline, the block of samples being one of multiple blocks included in a current picture, performing, in parallel, adaptive loop filter (ALF) processing for multiple target samples in the block of samples, while the previous-stage filter circuit is simultaneously processing another block in the current picture, storing, in a buffer, first samples each having a filter input area defined by a filter shape that includes at least one sample which has not been received, and storing, in the buffer, second samples included in the filter input areas of the first samples.

Abstract: Systems and methods for facilitating movement, including directing one or more entities along one or more path(s) and/or to (or away from) one or more destination(s) based on either: (a) a defining quality or feature or identity of the entity or (b) location-based considerations are disclosed. The systems are capable of presenting, from multi-view display devices viewable to many, different navigational content to different viewing zones, wherein a single multi-view display device can simultaneously present different content to different viewing zones wherein content presented to a particular viewing zone is only viewable from within that viewing zone.

Abstract: An imaging system includes one or more cameras, a display and processing system. The system can include a processor for receiving image data sets to generate combined images of the field of view and a magnified stabilized portion. Various embodiments emulate a digital magnifier or digital mirror applications. In some implementations, the processor can employ the captured images to detect one or more objects of interest (e.g., one or more objects moving within the field of view), in particular the object being magnified, the users' hand and fingers, along with gestures and held tools to affect the acquisition, tracking and magnification of the active work area.

Abstract: According to an embodiment, an encoding device includes: an index setting unit sets an index that represents information of a reference image and a weighting factor; an index reconfiguring unit predicts a reference value of the weighting factor, wherein the reference value indicates a factor to be set if a difference of pixel value between a reference image and a target image to be encoded is less than or equal to a specific value; and an entropy encoding unit encodes a difference value between the weighting factor and the reference value.

Abstract: A system for lossless pixel compression for random video memory access is described herein. The system includes an encoder and a decoder. The system also includes a memory that is to store instructions and that is communicatively coupled to the encoder and decoder. Further the system includes a processor. The processor is coupled to the camera, the display, and the memory. When the processor is to execute the instructions, the processor is to predict a data value based on values of local neighbors and generate an error term based on the predicted data value. The processor is also to losslessly compress a plurality of cachelines based on the error term and predictions.

Abstract: Various arrangements are presented for issuing an alert based on a baby's behavior. A video stream that images a baby may be received. The video stream may be analyzed to determine the baby is in a non-auditory discomfort state. A notification may be determined to be output to a caregiver based on the determined non-auditory discomfort state. An alert may be output that is indicative of the non-auditory discomfort state to an end-user device.

Abstract: An apparatus for replaying content calculates a three-dimensional coordinate using gaze information obtained through gaze-tracking, extracts a focal length corresponding to the calculated three dimensional coordinate and adjusts at least one of a perspective and a focus in a content for stereoscopic three-dimensional displays by adjusting an inter-pupillary distance (IPD) of a rendering stereo camera based on the extracted focal length. The apparatus adjusts the at least one of the perspective and the focus by adjusting a direction of the rendering stereo camera to a direction corresponding to a position of a target object so that the position of the target object is located within a circle of interest (CoI) and adjusts the at least one of the perspective and the focus by blurring a focus for another target object outside the focal length associated with the circle of interest (CoI) according to a convergence angle of both eyes.

Abstract: A system for measuring ball speed, the system comprising a camera configured to capture a live video stream including a plurality of frames, a processor, a memory having executable instructions stored thereon that when executed by the processor cause the processor to load configuration information for initializing settings for the processor and the camera, receive data representation of an environment layout, analyze the plurality of frames to identify a ball, calculate a speed of the ball at a release point based on the analysis, generate data representative of the calculated speed, and a display operative to display the data representative of the calculated speed.

Abstract: Systems and methods for detecting objects in imaging systems are provided. An example method includes, during an image composition process for capturing an image of an object using an image sensor of the imaging system, and responsive to an indication that an intensity of glare light interfering with the imaging system is higher than a threshold, acquiring a first image using the image sensor, converting the first image into at least a second image, the second image including an intensity-adjusted version of the first image, intermittently displaying images including the first image and at least the second image on a display of the imaging system, and ceasing the intermittent displaying of the images.

Abstract: A method of receiving a geo-spatial position from a first and second head-worn computer with see-through displays, and receiving orientation information from the first head-worn computer indicating an orientation of the first head-worn computer, presenting content in the first person's display indicative of the second person's location, wherein the content is aligned with a displayed straight virtual target line and positioned within the first person's field of view such that the content is perceived to be in a position associated with the second person's location and maintaining the displayed straight virtual target line and content position until receiving an indication that the second person has moved.

Abstract: An image detecting device includes a color image sensor configured to sense visible light and to output color image data based on the sensed visible light; a first infrared lighting source configured to provide first infrared rays to a subject; a second infrared lighting source configured to provide second infrared rays to the subject; a mono image sensor configured to sense a first infrared light or a second infrared light reflected from the subject and output infrared image data; and an image signal processor configured to, measure an illuminance value based on the color image data, measure a distance value of the subject based on a portion of the infrared image data corresponding to the first infrared light, and obtain an identification image of the subject based on the illuminance value, the distance value, and a portion of the infrared image data corresponding to the second infrared light.

Abstract: Systems and methods for utilizing on-device sensor information to improve video encoding quality are discussed herein. Specifically, the systems and methods may utilize on-device sensor information to efficiently determine whether to encode a particular frame within a set of frames as an intra frame. When captured on video, a particular arrangement of a group of pixels within a frame may comprise a visual representation of an object within the frame. When encoding video footage, motion information characterizing motion of an image capturing device over time may be used to predict the modification of an arrangement of a group of pixels between frames. These predictions may be used to efficiently determine whether to encode a particular frame as an intra frame.

Abstract: Systems and methods for utilizing on-camera sensor information to improve video and/or image encoding quality are discussed herein. Specifically, the systems and methods may utilize on-camera sensor information to efficiently determine whether to encode a particular frame within a set of frames as an intra frame. When captured on video, a particular arrangement of a group of pixels within a frame may comprise a visual representation of an object within the frame. When encoding video footage, motion information characterizing motion of an image capturing device over time may be used to predict displacement of an arrangement of group of pixels between frames. These predictions may be used to efficiently determine whether to encode a particular frame as an intra frame.

Abstract: An alignment system for images produced by cameras externally mounted on an aircraft includes a visual display positioned at a first location in the aircraft (such as a flight deck) and an alignment device positioned at a second location in the aircraft (such as an electronics bay). The visual display displays images provided by the cameras. The alignment device includes a user interface, which includes user inputs for selecting one of the cameras and for aligning an image from the camera selected on the visual display, a depiction of an aircraft, and indicators positioned adjacent the depiction. Each of the indicators represents selection of one of the cameras for aligning the image from that camera on the visual display.

Abstract: An encoder comprises a rate controller and a quantizer. The rate controller may be configured to compare an activity of a current block with an average activity of a previous frame; determine a quantization parameter offset according to the comparison between the activity of the current block and the average activity of the previous frame. Lastly, the rate controller may be configured to determine a quantization parameter using the quantization parameter offset. The quantizer in the encoder may be configured to quantize the current block using the quantization parameter.

Abstract: A camera system captures images from a set of cameras to generate binocular panoramic views of an environment. The cameras are oriented in the camera system to maximize the minimum number of cameras viewing a set of randomized test points. To calibrate the system, matching features between images are identified and used to estimate three-dimensional points external to the camera system. Calibration parameters are modified to improve the three-dimensional point estimates. When images are captured, a pipeline generates a depth map for each camera using reprojected views from adjacent cameras and an image pyramid that includes individual pixel depth refinement and filtering between levels of the pyramid. The images may be used to generate views of the environment from different perspectives (relative to the image capture location) by generating depth surfaces corresponding to the depth maps and blending the depth surfaces.

Abstract: Presented herein are techniques for filtering pixels during video coding and decoding operations. Similar operations are performed at a video encoder and a video decoder. For a target pixel in a block of a video frame represented by the encoded bit-stream, a value of the target pixel is compared with neighboring pixels to produce a plurality of comparison results. A particular offset value for the target pixel is derived based on the plurality of comparison results. The target pixel is filtered using the particular offset value. This process is performed for some or all of the pixels of blocks of a video frame.

Abstract: Methods, systems, and computer programs are presented for object recognition performed by electronic devices. One method includes an operation for capturing three-dimensional (3D) images of a region over a surface using 3D cameras, the surface having a pattern and each 3D camera defining a respective camera coordinate system. For each camera, the 3D image is analyzed to identify a location of the pattern indicating an origin of a common coordinate system, and a coordinate transformation function is defined to convert data to the common coordinate system. Each 3D camera captures a 3D object image of an object on the surface that includes 3D object data. The 3D object data is transformed to the common coordinate system to obtain transformed 3D object data. The 3D object data is combined to obtain a composite 3D object data, and object recognition of the object is performed based on the composite 3D object data.

Abstract: A system and method of displaying a conformal-capable head-up display image is provided. Distortions caused by combiner curvature, for example, are removed by pre-distorting and projecting separate images for each eye. Shutter-based eyewear controls the visibility as the imagery is cycled, e.g., shuttered, between left and right eyes. The combined image generator, projector and eyewear system maintains minimal vergence errors, minimal dipvergence errors, acceptable average transmittance, and optionally, high conformality.