Abstract: Generating edge-depth values for an object, utilizing the edge-depth values in generating a 3D point cloud for the object, and utilizing the generated 3D point cloud for generating a 3D bounding shape (e.g., 3D bounding box) for the object. Edge-depth values for an object are depth values that are determined from frame(s) of vision data (e.g., left/right images) that captures the object, and that are determined to correspond to an edge of the object (an edge from the perspective of frame(s) of vision data). Techniques that utilize edge-depth values for an object (exclusively, or in combination with other depth values for the object) in generating 3D bounding shapes can enable accurate 3D bounding shapes to be generated for partially or fully transparent objects. Such increased accuracy 3D bounding shapes directly improve performance of a robot that utilizes the 3D bounding shapes in performing various tasks.

Abstract: Methods, systems and apparatuses provide for graphics processor technology that generates attribute plane coefficients based on barycentric coefficients, wherein the attribute plane coefficients are generated on a per polygon basis, and interpolates one or more pixel attributes based on the attribute plane coefficients. In one example, the technology excludes the barycentric coefficients from one or more per pixel operations.

Abstract: An adjustable frame assembly for augmented reality eyewear. The frame assembly includes a face portion for supporting at least one waveguide that creates an eye box, a support rest for supporting the face portion on a user, and a coupling for adjusting the position of the face portion relative to the support rest. This enables movement of the waveguide eye box relative to the support rest to position the eye box in front of the wearer's eyes.

Abstract: Implementations provide method that includes: accessing data encoding the one or more images sized and shaped for presentation on a square or rectangular surface; providing the first set of data for warping by one or more computer processors such that each of the one or more images is projected onto a respective trapezoidal surface having a first base and a second base that is longer than the first base, wherein the first base is arranged to be closer to a viewer than the second base, and wherein a first portion of each image is projected further away from the viewer than a second portion of each image; and presenting each of the projected one or more images on the respective trapezoidal surface, wherein the first portion of each projected image is presented by the first base and the second portion of each projected image is presented by the second base.

Abstract: An image resynthesis system, a system for training a gap filling module to be used in the image resynthesis system, an image resynthesis method, a computer program product, and a computer-readable medium are provided. The image resynthesis system comprises a source image input module, a forward warping module predicting, for each source image pixel of a source image, a corresponding position in a target image, and predicting a forward warping field which is aligned with the source image, and a gap filling module filling in gaps resulting from application of the forward warping module.

Abstract: A method and apparatus for implementing a water ripple effect, an electronic device, and a computer readable storage medium are provided. The method obtaining a current image frame in an original video; selecting a water ripple map corresponding to the current image frame from a pre-obtained water ripple map sequence; determining displacements of respective pixels in the water ripple map, and forming a displacement vector diagram by using the displacements of the pixels; determining coordinates of respective pixels in the current image frame based on the displacement vector diagram to obtain a first water ripple distortion image; and determining a water ripple effect image corresponding to the current image frame based on the first water ripple distortion image and the water ripple map.

Abstract: The present disclosure relates to methods and systems for providing virtual feedback of a neural pattern to create a neural pathway corresponding to an action of an affected limb of a brain injury patient. Embodiments provide for detecting a neural pattern and determining a target action associated with the detected neural pattern. A virtual feedback is generated that includes a virtual action to be performed in a virtual representation of the affected limb. In embodiments, the brain injury may prevent the affected limb from performing the target action. The virtual representation of the affected limb is superimposed over a real-world presence of the affected limb such that the virtual representation is presented to the patient in lieu of the real-world presence, and the virtual action is performed in the virtual representation, such that the virtual action is presented to the patient in lieu of the target action in the real-world.

Abstract: A display apparatus is disclosed that includes a display panel and a controller. The display panel includes a first edge extending in a first direction, a second edge extending in a second direction that intersects the first direction, and a display area where an image is displayed. The controller is configured to obtain information to bend the display panel and, in response, to bend the display panel to a bent display panel. In the bent display panel, the first edge has a first display-panel curvature and the second edge has a second display-panel curvature.

Abstract: Methods for face detection to address privacy in publishing image datasets is described. A method may include face classification in an online marketplace. A server system may receive, from a seller user device, a listing including an image for the online marketplace. The server system may classify, by at least one processor that implement a distribution-balance trained machine learning model, each human face candidate within the image as being one of a private human face or a non-private human face. The server system may receive, from a buyer user device, a search query that is mapped to the listing in the online marketplace. The server system may transmit, to the buyer user device, a query response including the listing that includes the image determined to not include any private human faces or obscures any private human faces within the image based on the classifying.

Abstract: The present disclosure provides a screenshot method for an information interaction interface, including: detecting a screenshot operation; acquiring information corresponding to the information interaction interface in response to the screenshot operation, wherein the information corresponding to the information interaction interface includes at least one piece of display information currently displayed in the information interaction interface; displaying an editing interface including at least one piece of editable information, wherein each piece of editable information corresponds to one piece of display information; and editing display content of the editing interface in response to an operation on the editing interface to generate a final display picture including at least the edited display content. In addition, the present disclosure also provides a screenshot apparatus for an information interaction interface, a computing device, and a computer-readable storage medium.

Abstract: Various embodiments provide an electronic device and a method for controlling an operation of the electronic device.

Abstract: A system for recognizing gestures generates a skeletal model from video data of a subject. A defined subset of attributes of the skeletal model are mapped to defined positions of a vector. A gesture is recognized by evaluating a neural network using the vector as input. The neural network, trained using training vectors generated according to the definitions of skeletal model attributes and vector positions, classifies a gesture based on the input vector.

Abstract: An electronic training system includes a set of external response sensors and a set of internal response sensors, and control circuitry. The control circuitry is configured to track locomotion and body movements of a user from the set of external response sensors in a sporting event, and electrical brain activity and physiological changes in a body of the user from the set of internal response sensors in a sporting event. Tracked data in the sporting event is annotated as period-of-relevance and period-of-irrelevance. A first sports performance state is assigned to the user for the sporting event based on a combination of a user feedback and sports statistics. The control circuitry outputs a first integrated visual motion model on a display device based on annotated tracked data in the period-of-relevance such that the first sports performance state of the user for the sporting event is discernible by a viewer.

Abstract: An information processing device and an information processing method capable of effectively implementing sales promotion measures for promoting product purchase via an EC company while avoiding leakage of personal information are provided. The information processing device includes a processing unit that performs mask processing or mosaic processing on a predetermined area of a captured image acquired by capturing at least one of a purchase history, a delivery statement, and an email provided to a user by at least one electronic commerce company, and a determination unit that determines whether the captured image that has been processed includes predetermined information.

Abstract: A computer-implemented method for shape deformation, comprising: obtaining an image; obtaining one or more positional constraints; determining a shape deformation/image map, based on the positional constraints; applying the shape deformation to the image; and outputting the image.

Abstract: A method for setting a system interface of a mobile terminal includes: determining a pressure value; dividing sub-regions; determining a reduced or enlarged ratio of an icon; determining a layout of the icon; and determining a value of an operating parameter. Thus, the sub-regions may be divided targetedly according to characteristics of the sliding operation of each user, so that an icon position laid out for each system interface, according to the divided sub-regions, may be more adaptive to operation requirements of the user and may targetedly reduce operation difficulty of the user.

Abstract: Techniques and systems are provided for configuring neural networks to perform warping of an object represented in an image to create a caricature of the object. For instance, in response to obtaining an image of an object, a warped image generator generates a warping field using the image as input. The warping field is generated using a model trained with pairings of training images and known warped images using supervised learning techniques and one or more losses. The warped image generator determines, based on the warping field, a set of displacements associated with pixels of the input image. These displacements indicate pixel displacement directions for the pixels of the input image. These displacements are applied to the digital image to generate a warped image of the object.

Abstract: A projection device including a processor circuit is provided. The processor circuit generates multiple warped feature points according to multiple first feature points and multiple second feature points. The processor circuit transforms a first mapping table into a second mapping table according to the warped feature points. The projection device projects a correction pattern to a projection screen. The correction pattern includes the first feature points. The processor circuit receives an image of the correction pattern projected to the projection screen that is captured by a 3D image capturing device, so as to obtain coordinate positions of the second feature points. The processor circuit calculates a viewer position according to the coordinate positions of the second feature points. The processor circuit generates an antiwarp image according to an input image and the second mapping table. The projection device projects the antiwarp image to the projection screen.

Abstract: In one embodiment, a method includes, generating rays for casting into an artificial reality scene that includes one or more surfaces to determine whether the one or more surfaces are visible from a viewpoint. An origin and a trajectory of each ray are based on the viewpoint. The method includes applying a geometric transformation to the rays to modify their respective trajectory into the artificial reality scene. The geometric transformation is based on one or more distortion characteristics of a display system. The method includes determining, based on the modified trajectories of the rays, points of intersection of rays with the one or more surfaces in the artificial reality scene. The method includes providing, for display by the display system, color values generated based on the determined points of intersection.

Abstract: Embodiments disclose a screen capturing method and an apparatus. The screen capturing method includes: running a target application, and displaying a first interface of the target application. The method also includes receiving a screen capturing instruction entered by a user; sending an indication message to the target application according to the screen capturing instruction, so that the target application modifies the first interface to a second interface according to the indication message, where the first interface is different from the second interface; and generating a screen capture picture according to the second interface.

Abstract: The present disclosure relates to methods and systems for providing virtual feedback of a neural pattern to create a neural pathway corresponding to an action of an affected limb of a brain injury patient. Embodiments provide for detecting a neural pattern and determining a target action associated with the detected neural pattern. A virtual feedback is generated that includes a virtual action to be performed in a virtual representation of the affected limb. In embodiments, the brain injury may prevent the affected limb from performing the target action. The virtual representation of the affected limb is superimposed over a real-world presence of the affected limb such that the virtual representation is presented to the patient in lieu of the real-world presence, and the virtual action is performed in the virtual representation, such that the virtual action is presented to the patient in lieu of the target action in the real-world.

Abstract: A representation of a surface in a three-dimensional space is obtained. A first input representing a starting point and a second input representing a next point are obtained. A representation of a surface-aware spline comprising vertices is generated, with the representation of the surface-aware spline including a starting vertex corresponding to the starting point and a next vertex corresponding to the next point. First and second projection points corresponding to projections of a first vertex and a second vertex onto the surface are determined. New points corresponding to equal distance points for the first and second vertices aligned with the first and second projection points are determined, and a rigid transformation is determined from the new points. The representation of the surface-aware spline is adjusted based on a transformation of the new points using the rigid transformation.

Abstract: A lens distortion correction function operates by backmapping output images to the uncorrected, distorted input images. As a vision image processor completes processing on the image data lines needed for the lens distortion correction function to operate on a group of output, undistorted image lines, the lens distortion correction function begins processing the image data. This improves image processing pipeline delays by overlapping the operations. The vision image processor provides output image data to a circular buffer in SRAM, rather than providing it to DRAM. The lens distortion correction function operates from the image data in the circular buffer. By operating from the SRAM circular buffer, access to the DRAM for the highly fragmented backmapping image data read operations is removed, improving available DRAM bandwidth. By using a circular buffer, less space is needed in the SRAM. The improved memory operations further improve the image processing pipeline delays.

Abstract: Systems, devices, and methods redact one or more light-emitting screens in data recorded on a recording device. The redaction may include receiving recorded data comprising a plurality of pixel values. The redaction may include detecting one or more light-emitting screens in the received image. The redaction may include redacting a subset of the pixel values from the recorded associated with the one or more detected light-emitting screens. The redaction may be commonly applied to multiple frames of recorded data through the use of a unique identifier assigned to a same detected light-emitting screen. A same light-emitting screen may be tracked across multiple non-sequential or sequential frames and assigned a same unique identifier.

Abstract: A system and method for human motion detection and tracking (10) are disclosed. In one embodiment, an optical sensing instrument (16) monitors a stage (24). A memory (182) is accessible to a processor (180) and communicatively coupled to the optical sensing instrument (16). The system (10) captures a depth frame (150) from the optical sensing instrument (16). The depth frame (150) is converted into a designated depth frame format (152), which includes at each image element second coordinate values relative to the depth frame (150). Probability distribution models are applied to the designated depth frame format (152) to identify a respective plurality of body parts. The position of each of the respective plurality of body parts in the designated depth frame format (152) is calculated as is the position of each of the respective plurality of body parts in the depth frame (150).

Abstract: Embodiments relate to the communications field, and provide an icon display method and a terminal device. A solution includes a terminal device that determines a grasp point location, where a grasp point location is one of a preset graspable part of the terminal device; the terminal device determines a relative location of each of at least one icon displayed on the terminal device; the terminal device determines a current operation region based on the grasp point location; the terminal device determines a sensing region of each icon based on the current operation region, the grasp point location, and the relative location of each of the at least one icon, so that the sensing region of each icon partially or completely falls within the current operation region.

Abstract: Techniques for edit experience for transformation of digital content are delivered in a digital medium environment. According to various implementations, an image editor system receives edits to a digital image to transform the digital image and generate an edited image. An edit experience is then generated that is presentable to recreate the image transformation process. The image editor system outputs the edit experience to enable a user to interact with the edit experience to reproduce the image transformation, such as via a step-by-step process. In at least some implementations, edits to a particular digital image are saved as presets that can be suggested for editing other images, such as images that are determined to be similar to an edited image.

Abstract: An HMD adjusts adjusting depth information based on detected motion of the system. The HMD includes a depth camera that collects depth data for objects in the local environment of the HMD. The HMD further includes an inertial measurement unit (IMU) including non-visual motion sensors such as one or more accelerometers, gyroscopes, and the like. The HMD adjusts the received depth information based on motion data provided by the IMU, thereby improving the accuracy of the depth information, and in turn reducing visual artifacts that can result from inaccuracies in the depth information.

Abstract: A projection apparatus includes a control circuit and a projection circuit. The control circuit includes a first processor and has an Internet-connection function. The first processor is configured to run an operation system. The first processor is configured to control the projection circuit via a first control interface. The projection circuit is configured to receive an original video signal from the control circuit to project a projection image based on the original video signal.

Abstract: Systems, interfaces, and methods for implementing the systems and interfaces includes selection attractive movement as the selection protocol, where a selection object is used to discriminate between selectable objects and attract a target object toward the selection objects, where the direction and speed of the motion controls, discriminates, attracts, and activates the selected objects.

Abstract: A retinal imager for imaging a retina of an eye includes an illumination source operable to generate illumination light and a beam splitter operable to receive the illumination light and direct the illumination light along an optical axis. The retinal imager also includes a field lens disposed along the optical axis and an objective lens disposed along the optical axis and operable to contact a cornea of the eye. An aerial image is formed adjacent to the field lens. The retinal imager further includes an image sensor and one or more lenses disposed along the optical axis between the beam splitter and the image sensor. The one or more lenses are operable to form a sensor image at the image sensor.

Abstract: In one embodiment, a method includes receiving image data corresponding to an external environment of a user. The image data is captured at a first time and comprises a body part of the user. The method also includes receiving a first tracking data generated based on measurements made at the first time by at least one motion sensor associated with the body part; generating, based at least on the image data, a model representation associated with the body part; receiving a second tracking data generated based on measurements made at a second time by the at least one motion sensor associated with the body part; determining a deformation of the model representation associated with the body part based on the first tracking data and the second tracking data; and displaying the deformation of the model representation associated with the body part of the user.

Abstract: A method for displaying a graphical user interface (GUI) is disclosed, which relate to the data processing field. The method specifically includes: determining whether a display of a device is shielded; when it is determined that the display is shielded, determining a shielded area and a display area of the display; determining parameter information of the display area, where the parameter information includes an area size of the display area and a position of the display area; and obtaining, according to the parameter information, a GUI that matches the display area, and displaying the GUI in the display area. Whether a display of the device is shielded is determined. When the display is shielded, the GUI is displayed in the display area, so that the GUI can be displayed only in the display area of the display and does not need to be displayed in full screen.

Abstract: Described are apparatus and methods for providing secure identification, payment processing and/or signing using a gesture-based input device without biometrics.

Abstract: Systems and methods for dynamic contour volume deformation are disclosed. An embodiment includes applying a deformation to a point of a volumetric mesh, wherein a plurality of tessellations of the volumetric mesh are identified and wherein each tessellation is a tetrahedral mesh, identifying a deformation point associated with a first polyhedron of the volumetric mesh, determining a barycentric coordinate representation of the deformation point with respect to each tetrahedron of the plurality of tessellations, determining, for each tessellation of the first polyhedron, weight values with respect to the deformation point for vertices of each tetrahedron which correspond to natural vertices of each tetrahedron, and determining, based on the determined weight values, a new position of the identified deformation point represented as a weighted sum determined from the barycentric coordinate representations.

Abstract: Disclosed are a display device and a method of controlling a display device, the display device including: an image processor configured to process an image; a display configured to display the image processed by the image processor; and a controller configured to determine a moving direction of at least one object having mobility in the image, and controls the image processor so that at least a partial region of the image can be stretched and displayed based on the determined moving direction.

Abstract: Caricature generation techniques and systems are described that are configured to preserve an individuality identity of a subject of the caricature and thus overcome inaccuracies and failures of conventional techniques. In one example, a caricature generation system is employed by a computing device to determine deviations of facial features of a subject captured by a digital image from reference values. Caricature-specific blend shapes are then employed by the caricature generation system to generate a digital image caricature from a digital image based on these deviations. In one example, blend shapes include interaction rules that define an interplay of distortions that are jointly applied to at least two of the facial features of a subject in the digital image.

Abstract: The present invention provides a projection method, equipment and system for achieving short focal length circular-screen output based on multiple optical machines. The projection method includes: setting a plurality of optical machines corresponding to one visual plane; calculating a value range of a throw ratio of the optical machines corresponding to the visual plane according to a percentage of a fusing zone formed when projection of the optical machines intersects each other and is projected to the corresponding visual plane and an expected screen ratio; obtaining setting parameters of each optical machine based on the value range of the throw ratio of each optical machine; and obtaining a spatial position and a rotation angle range for when the optical machines are projecting based on the setting parameters of the optical machines and a projection area of an optical path coverage range of the optical machines on the corresponding visual plane.

Abstract: An information processing apparatus displays an image relating to image data captured by an image capturing unit and includes a first display control unit that superimposes a first object on the image, the first object indicating a position corresponding to a partial image corresponding to a part of the image captured by the image capturing unit, and a second display control unit that superimposes a second object on the image, the second object indicating a direction for enabling a position of the partial image to be moved on the image.

Abstract: Techniques and architecture are disclosed for navigating an area with multi-panel luminaires configured to display fiducial patterns. In an embodiment, a system includes a plurality of luminaires located in an area and configured to display one or more fiducial patterns recognizable by a mobile computing device. The luminaire includes a plurality of panels, each panel associated with one or more solid-state light sources. The luminaire also includes at least one driver configured to control the light sources to transmit light through the plurality of panels at varying light intensities to display a fiducial pattern and configured to detect errors in the display of the fiducial pattern.

Abstract: A method of processing an image in a device, and the device thereof are provided. The method includes determining a distortion correction ratio of each of a plurality of vertices included in a source image, based on information about a lens through which the source image is projected, determining corrected location information of pixels located between the plurality of vertices, based on the distortion correction ratio of each of the plurality of vertices and interpolation ratios of the pixels, and rendering a distortion-corrected image including pixels determined as a result of performing interpolation on the plurality of vertices based on the corrected location information.

Abstract: For certain medical images, it is important and/or required that a user view all of a medical image at full resolution so that minute, but important, indicia in the medical image are not missed. A computing systems monitor the portions of the medical image that are displayed on the display device, notates those portions that have been displayed at full resolution (or other user-defined display parameters), and provides the user with information indicating portions that have not been viewed at full resolution and/or provides information indicating for which images of a multiple image examination full pixel display has been accomplished. The process reduces the possibility of missing an abnormality in a medical image due to the viewer not viewing a portion of the image at full resolution or using other user-defined display parameters.

Abstract: A method for detection and use of device identifiers to enhance the security of data transfers between electronic devices. A first electronic device can transmit access data to a second electronic device. The access data can be associated with a first access code that can be generated based at least in part on data representing a device identifier of the first electronic device. A device identifier can uniquely identify the first electronic device from a plurality of electronic devices. Transferring the access data can involve transforming the first access code into a second access code that can include data representing a device identifier associated with the second electronic device. Transforming the first access code into the second access code can facilitate access to a resource associated with the access data for a second user, but not for a first user.

Abstract: A method of processing an image in a device, and the device thereof are provided. The method includes determining a distortion correction ratio of each of a plurality of vertices included in a source image, based on information about a lens through which the source image is projected, determining corrected location information of pixels located between the plurality of vertices, based on the distortion correction ratio of each of the plurality of vertices and interpolation ratios of the pixels, and rendering a distortion-corrected image including pixels determined as a result of performing interpolation on the plurality of vertices based on the corrected location information.

Abstract: This disclosure covers systems and methods that sharpen the appearance of a digital illustration while moving the digital illustration. In certain embodiments, upon receiving a command to move a digital illustration, the disclosed systems and methods move the digital illustration (and its constituent line segments) to positions that both sharpen the appearance of the digital illustration and respond to the command. To facilitate sharpening the appearance of a digital illustration as part of a seemingly continuous movement, in some embodiments, the disclosed systems and methods move a blurry digital illustration to a position that sharpens the appearance of blurry axial-line segments by translating the digital illustration according to a translation vector and a command to move the digital illustration.

Abstract: The present invention relates to a long-range discernible image generating apparatus and a method of operating the same, and particularly, to a long-range discernible image generating apparatus and a method of operating the same, which are capable of providing improved legibility. According to an embodiment of the present invention, a long-range discernible image generating apparatus is provided.

Abstract: Provided is a vehicle head-up display (HUD) device including a display unit divided into a first display area and a second display area; a folding mirror configured to reflect a first image to the first display area; a picture generation unit (PGU) configured to directly project the first image to the folding mirror; and a control unit configured to adjust a projection distance and a magnification and control the PGU to output the first image to the first image area and to output a second image to the second display area. Here, the first image is an virtual image, and the second image is an real image.

Abstract: A method constructs an image with improved peak signal-to-noise ratio (PSNR) from a scattered pixel set. The method generates an approximation function that is a linear combination of a plurality of Many-Knot (MK) spline basis functions, and constructs the image with improved PSNR by conducting a least squares treatment on the approximation function to minimize a residual of each pixel value in the scattered pixel set from the approximation function.

Abstract: In a method of operating an application processor to control a display device including a non-rectangular valid display region, screen information regarding the non-rectangular valid display region is received, and a plurality of pieces of valid pixel data selected based on the screen information and corresponding to the non-rectangular valid display region are output to the display device.

Abstract: Techniques to control shape interaction in a user interface are described. In one or more implementations, a method is described of controlling user interface shape interaction by a computing device. A shape is displayed in a user interface by the computing device, the shape described using a plurality of points, each of the points having an associated radius. An input is detected, by the computing device, involving modification of the associated radius of least one of the plurality of points. A determination is made, by the computing device, whether modification of the associated radius of the at least one point causes an intersection of the associated radius of one or more of the plurality of points neighboring the at least one point. Responsive to the determination that the modification causes the intersection, the associated radius of the one or more points are modified such that the intersection does not occur.