Abstract: Disclosed is a printing device including: a finger stage which has a nail rest, having an identifier, to place a tip of a nail, the nail being a printing target, and on which a finger corresponding to the nail is placed; and at least one camera which obtains an image from a first direction and an image from a second direction. The identifier which detects a position of the nail is provided on one surface of the nail rest such that the identifier does not exist in the image from the first direction but the identifier exists in the image from the second direction.

Abstract: The present application discloses a display device. The display device comprises: a displaying component, an imaging component, and a placement region indicating component, wherein, the imaging component establishes a communication connection with the displaying component, the placement region indicating component is configured to indicate a placement region of an object to be imaged, an imaging region of the imaging component being the placement region as indicated by the placement region indicating component, the imaging component is configured to image the object to be imaged which is located within the placement region, and the displaying component is configured to display an image generated by the imaging component.

Abstract: In a device for optically measuring the external-thread profile of a pipe, comprising a support for the pipe to be measured and an optical measuring unit including at least one measuring device comprising a light source and a camera arranged in the optical path of the light source for recording a silhouette image of the external-thread profile, wherein the optical measuring unit is, in particular rigidly, mounted on a carrier element pivotally held about three spatial axes, the optical measuring unit comprises at least two measuring devices whose optical paths cross each other.

Abstract: A system includes at least one dynamically configurable tracking device, receiving a video stream and, adapted for detection and automatic tracking of at least one target by analysis of the video stream; a calculator of a metric performance value of the tracking device; a configuration parameter corrector of the tracking device as a function of the metric performance value; and a dynamic configurator of the tracking device by applying the corrected configuration parameter. It further includes at least one device for measurement of at least one value representative of a demand for hardware resources by the tracking device, and the calculator is adapted to calculate the metric performance value starting from the measured value.

Abstract: The present disclosure is directed to a video surveillance system and method for performing display-based video analytics on video streams provided by internet protocol (IP) cameras and/or a video management system (VMS) over an IP network. Display-based video analytics can perform video analytics on the video streams without a direct connection to the IP network. Because the display-based video analytics can perform video analytics on the video streams without being directly connected to the IP network, the display-based video analytics can be more readily implemented in video surveillance systems with secure IP networks.

Abstract: A system and method are described for combining multiple views of a video game or application into a single video stream (or set of video streams). For example, a system according to one embodiment comprises: a plurality of application/video game instances executed for a particular multi-player video game or application on a hosting service, the application/video game instances being executed in response to control signals received from a plurality of clients; compositing logic executed at the hosting service to combine video streams generated by each of the application/video game instances into a single video stream for a first one of the clients; and compression logic to compress the single video stream with low latency such that the user of the first one of the clients has the perception that the video game or application is being executed locally.

Abstract: A method for monitoring a work process in which a workpiece is worked on by a tool, the method comprising: providing an irregular pattern of indicia remote from the workpiece and the tool; imaging the indicia by an imaging device carried by the workpiece and thereby estimating the location of the workpiece with respect to the indicia; imaging the indicia by an imaging device carried by the tool and thereby estimating the location of the tool with respect to the indicia; and correlating the location of the workpiece and the tool to estimate an operation performed by the tool on the workpiece.

Abstract: A headlamp control device estimates, in a case where an ambient illuminance of a subject vehicle is equal to or lower than a predetermined switching illuminance when a state of a headlamp is the ON state, a time required for the subject vehicle to travel to an entrance of a tunnel in front of the subject vehicle, as a first time, switches, in a case where the first time is longer than a first determination time, the headlamp state from a low-beam state to a high-beam state, and, keeps, in a case where the first time is equal to or shorter than the first determination time, the headlamp state as the low-beam state.

Abstract: An off-road vehicle that travels on the off-road ground includes: a sensor group configured to detect unevenness of the ground; a camera configured to capture the unevenness of the ground; a ground unevenness degree calculation unit configured to calculate a ground unevenness degree indicating an unevenness degree of the ground based on an input parameter; an input parameter setting unit configured to set, as the input parameter, data selected from among data detected by the sensor group and image data captured by the camera; an unevenness-position data generation unit configured to associate the actual vehicle position with the ground unevenness degree to generate ground unevenness-position data; and a data storage unit configured to store the ground unevenness-position data.

Abstract: A system includes one or more antennas; and a processor to control a directionality of the antennas in communication with a predetermined target using 5G protocols.

Abstract: A system includes one or more antennas; and a processor coupled to the antennas in communication with a predetermined target using 5G protocols.

Abstract: A total station configured for receiving from a camera a first image captured in a first face and a second image captured in a second face, wherein in the second face the camera is rotated around the optical axis by between 170° and 190° compared to the first face, receiving at least one of an azimuthal angle pair and an elevative angle pair, said azimuthal angle pair comprising a first azimuthal angle and a second azimuthal angle, and said elevative angle pair comprising a first elevative angle a second elevative angle, matching the first image and the second image with a relative rotation and a relative translation, determining the relative rotation of the matched first image and second image, determining the relative translation of the matched first image and second image, based on the respective angle pair, the relative rotation, the relative translation, and determining an instrument error.

Abstract: A security system includes a camera having a field of vision. The camera sends image frames to a machine readable memory. A processor is accessible to the machine readable memory. The processor performs acts of receiving from the camera a plurality of frames; detecting an object entering the field of vision; determining whether the object is a person; tracking a moving path of the person; and performing facial recognition on the person using at least one of the plurality of frames.

Abstract: The present disclosure provides an image processing method, an image processing apparatus, an electronic device, and a computer-readable storage medium. The image processing method of the embodiment of the present disclosure is for an electronic device. The method includes: acquiring a depth image of a current user, and acquiring a three-dimensional (3D) background image of a scene populated by the current user; performing edge extraction on the 3D background image to acquire depth data, in the 3D background image, of edge pixels of a target object in the 3D background image; determining whether the current user collides with the target object in the scene based on the depth image of the current user and the depth data of the edge pixels of the target object; and performing a predetermined operation on the electronic device in response to that the current user collides with the target object.

Abstract: A system includes a transceiver to communicate with a predetermined target; one or more antennas coupled to the transceiver each electrically or mechanically steerable to the predetermined target; and an edge processing module coupled to the transceiver and one or more antennas to provide low-latency computation for the predetermined target.

Abstract: A visual search system detects one or more user-selected objects represented in an image. A first group of attributes for the user-selected objects is identified. A category for the user-selected objects is identified, and a second group of pre-defined attributes associated with the category is retrieved. The first and second groups of attributes are combined into an attributes set. The combined set of attributes are presented to the user. The user selects one or more attributes and a search is performed to identify images similar to the user-selected attributes. The images are ranked and a subset is presented to the user.

Abstract: Obstacle determination systems and programs detect back-and-forth steering that is behavior of a vehicle for avoiding an obstacle. The systems and programs determine that the obstacle is present between a point where the back-and-forth steering has started and a point where the back-and-forth steering has ended when a steering start road and a steering end road are identical roads. The steering start road is a road where the vehicle is present at a start of the back-and-forth steering. The steering end road is a road where the vehicle is present at an end of the back-and-forth steering.

Abstract: In one embodiment, an auxiliary camera unit for a vehicle includes an image capture device, a mounting mechanism for attaching the auxiliary camera unit to the vehicle, and a communication device to wirelessly transmit data to the vehicle and receive data from the vehicle. The auxiliary camera unit further includes one or more processors and a memory communicably coupled to the one or more processors and storing: a control module including instructions that when executed by the one or more processors cause the one or more processors to set one or more operational settings for the image capture device based on a position of the auxiliary camera unit relative to the vehicle and cause the communication device to transmit a video feed from the image capture device to the vehicle according to the one or more operational settings.

Abstract: An apparatus comprising an interface and a processor. The interface may be configured to receive a spherical video stream. The processor may be configured to (a) generate an encoded spherical video stream from the spherical video stream, (b) select a target area for one or more frames of the encoded spherical video stream corresponding to a pre-determined region of interest, (c) encode entire fields of view of the one or more frames of the encoded spherical video stream using second parameters, (d) select and encode an additional area next to the target area using third parameters, and (e) transmit the encoded spherical video stream comprising the encoded target area, the encoded additional area, and encoded entire fields of view of the one or more frames to a playback device.

Abstract: A system includes at least one dynamically configurable tracking device, receiving a video stream and, adapted for detection and automatic tracking of at least one target by analysis of the video stream; a calculator of a metric performance value starting from a target tracking result supplied by the tracking device; a configuration parameter corrector of the tracking device as a function of the metric performance value; and a dynamic configurator of the tracking device by applying the corrected configuration parameter. It further includes a supplementary reference tracking device, receiving at least one portion of the video stream, and the calculator calculates the metric performance value from a comparison on the video stream portion, of the target tracking result supplied by the tracking device and a reference tracking result supplied by the supplementary reference tracking device.

Abstract: Embodiments described herein disclose methods and systems for dynamic object recognition. Using location and information from the recognition process, historical data for a dynamic object, and associated data from secondary objects, a more complete data set can be generated for the dynamic object. The dynamic object data set can then be stored for later recognition and a more complete and human-like understanding of the dynamic object, useful in a variety of automated tasks.

Abstract: A depth sensing apparatus and an operation method thereof are provided. The depth sensing apparatus includes a projector, multiple cameras, and an image processing circuit. The projector includes a diffraction optical element (DoE) and a light source module. Rays of the light source module selectively pass through at least one of multiple projection style regions of the DoE so as to generate a projection pattern, and the projection pattern is projected to a field. The cameras respectively shoot the projection pattern projected to the field to obtain multiple images. The image processing circuit processes the images to obtain multiple depth maps. The image processing circuit at least merges the depth maps to generate a final depth map of the field.

Abstract: Techniques and systems are described that leverage computer vision as part of search to expand functionality of a computing device available to a user and increase operational computational efficiency as well as efficiency in user interaction. In a first example, user interaction with items of digital content is monitored. Computer vision techniques are used to identify digital images in the digital content, objects within the digital images, and characteristics of those objects. This information is used to assign a user to a user segment of a user population which is then used to control output of subsequent digital content to the user, e.g., recommendations, digital marketing content, and so forth.

Abstract: The present disclosure provides a method and a device for positioning, an apparatus and a computer readable storage medium. The method includes acquiring a visual feature map of a geographic area located by a movable object. The visual feature map includes a first set of visual features. The method further includes acquiring at least one image captured by a camera coupled to the movable object during a motion of the movable object within the geographic area. The method further includes extracting a second set of visual features corresponding to the first set of visual features from the at least one image. In addition, the method further includes determining at least one pose of the movable object during the motion at least based on the visual feature map and the second set of visual features.

Abstract: A monitoring system includes an imaging unit that captures an image including a monitoring target person in an interior compartment of a vehicle, a monitoring unit that detects a monitoring target part of the monitoring target person based on the image captured by the imaging unit and monitors a state of the monitoring target person based on a detected target part position serving as a position of the detected monitoring target part, and a display unit that is provided in the interior compartment of the vehicle and displays visual information representing a relative position of the detected target part position with respect to a preset appropriate monitoring position.

Abstract: An image display device includes an image capturing unit configured to capture an image of a rearview and a sideview from a host vehicle, and a display unit configured to display, as a display image, a captured image captured by the image capturing unit or a generated image generated based on the captured image. The display unit includes a first area for displaying the display image that includes an area to the rearview of the host vehicle and a second area, being arranged adjacent to the first area, for displaying the display image that includes an area to the sideview of the host vehicle, and the displayed image displayed in the second area is image-processed in such a manner that an aspect ratio changes with respect to an aspect ratio of the display image displayed in the first area.

Abstract: An imaging device includes, an element installation plane configured to install light emitting elements in a plane perpendicular to an optical axis. The element installation plane includes a first installation position relatively long in distance from an optical axis of a lens unit and a second installation position relatively short in distance therefrom. At least one of the light emitting elements is installed at the second installation position.

Abstract: A composite panoramic vision system utilized onboard a work vehicle includes a display device, a vehicle-mounted camera array, and a controller. The vehicle-mounted camera array includes, in turn, first and second vehicle cameras having partially overlapping fields of view and positioned to capture first and second camera feeds, respectively, of the work vehicle's exterior environment from different first vantage points. During operation of the composite panoramic vision system, the controller receives the first and second camera feeds from the first and second cameras, respectively; generates a composite panoramic image of the work vehicle's exterior environment from at least the first and second camera feeds; and then presents the composite panoramic image on the display device for viewing by an operator of the work vehicle.

Abstract: A control apparatus obtains the moving speed of an object, and controls, based on the moving speed of the object, an image capturing unit configured to capture the object such that first image capturing for performing image capturing without following the object or second image capturing for performing image capturing while following the object is performed.

Abstract: Systems and methods are provided for enhancing streaming performance through controlled and selectively-applied reductions in the color depth of streamed video content. In various embodiments, the method includes receiving, at a streaming media server, a request transmitted over a communications network to stream video content to a client media receiver. In response to this request, a streaming video session is initiated between the client media receiver and the streaming media server. During the streaming video session, the streaming media server obtains the video content as video input data having an original color depth; generates an encoded video stream from the video input data, while selectively reducing a color depth of the encoded video stream; and transmits the encoded video stream over the communications network to the client media receiver. The streaming media server repeats the steps of generating and transmitting until termination of the streaming video session.

Abstract: Systems and methods may include a camera mode circuit receiving input from a plurality of sensors, determining camera modes available for camera activation, selecting one of the available camera modes by using received input from the plurality of sensors, evaluating input received from the plurality of sensors to determine the current condition of the vehicle and selecting a camera mode based on the determine current condition of the vehicle, selecting one or more cameras from which images are to be displayed based on the selected camera mode and mapping images from the selected cameras to one or more displays within the vehicle, and displaying the images from the selected cameras according to the mapping in response to an activation event.

Abstract: A method includes receiving, at a device from a first media device, audio data and image information. The audio information indicates vibrations of an object caused by sound in a vicinity of the object. The method includes generating, at the device, an audio signal based on the audio data. The method includes transmitting the audio signal from the device to a second media device conditioned upon a quality of the audio signal satisfying a threshold. Conditioned upon the quality of the audio signal failing to satisfy the threshold, the method further includes generating audio information based on the vibrations, generating audio content associated with the first media device from the audio information, and transmitting the audio content from the device to the second media device.

Abstract: A viewing device for a vehicle is provided with plural cameras, an image generation unit, a display and a switching control unit. The plural cameras have different imaging ranges. On the basis of captured images from one or a plural number of the cameras, the image generation unit generates plural viewing images that differ in at least one of viewpoint or viewing angle. The display displays the viewing images. The switching control unit is capable of switching a viewing image being displayed at the display to another of the viewing images.

Abstract: Highly accurate estimation results are obtained even though cameras used for shape estimation of an object are distributed in accordance with a plurality of points of interest. The image processing apparatus of the present invention includes: an estimation unit configured to estimate an object shape of an object within a multi-viewpoint video image captured by each of a plurality of camera groups in units of camera groups; and an integration unit configured to integrate estimation results of the object shapes estimated in units of camera groups based on a camera map indicating a position relationship between common image capturing areas in each of the plurality of camera groups.

Abstract: An optical characteristics measuring method for measuring optical characteristics of a subject, the optical characteristics measuring method including: a step of acquiring one or more captured images including the subject, using an image capturing apparatus that is located at a predetermined distance from the subject, and is configured to be displaceable relative to the subject, while maintaining the predetermined distance; and a step of creating, based on the one or more captured images thus acquired, a virtual image including the subject and acquired from one or more analysis points each located at a position other than a position on a plane that includes the trajectory of the image capturing apparatus.

Abstract: A camera parameter estimation apparatus 10 estimates camera parameters when an object is photographed by a camera. The camera parameter estimation apparatus 10 is provided with: a parameter calculation unit 20 configured to divide an error function representing a transformation between at least six sets of three-dimensional points relating to the object and two-dimensional points on an image that correspond to the respective three-dimensional points into a plurality of subproblems based on dependency among the camera parameters and the flatness of distribution of the three-dimensional points, and to calculate optimal solution candidates in the respective subproblems; and a parameter optimization unit 30 configured, with the optimal solution candidates as initial values, to find an optimal solution for minimizing an error obtained by the error function, and to output the found optimal solution as an optimal camera parameter.

Abstract: An imaging detector includes an image detection device that includes an array of digital pixels, each digital pixel including an output that provides a pulse each time a charged stored in the digital pixel exceeds a threshold, an accelerometer connected to the image detection device, and a readout integrated circuit (ROIC) connected to the accelerometer and connected to the output of each of the digital pixels and that receives pulses from each pixel. The ROIC includes a plurality of accumulators. Each of the plurality of accumulators associated with a respective digital pixel is configured to receive a pulse from a first digital pixel of the array of digital pixels and to assign the received pulse to an accumulator associated with another digital pixel of the array based on information received from the accelerometer.

Abstract: Methods and systems for evaluating a search area for encoding video are provided. The method comprises receiving video captured by an image capture device, the video comprising video frame components. Additionally, the method comprises receiving optical flow field data associated with the video frame component, wherein at least a portion of the optical flow field data is captured by sensors. The method also comprises determining a search area based on the optical flow field data.

Abstract: Methodology for calibrating a rotating mirror system includes: measuring a normal of a first fiducial of the mirror system; measuring vectors to a second fiducial of the mirror system, each vector being measured at a different angle of rotation about an azimuth axis of rotation of the mirror system; calculating the azimuth axis of rotation using the measured vectors; creating a base coordinate system from the measured first fiducial normal and the calculated azimuth axis of rotation; and for each of a first mirror and a second mirror of the mirror system, measuring normals of the mirror at multiple angles of rotation, calculating an axis of rotation of the mirror using the measured normals, creating a mirror coordinate system from the measured normals and the calculated axis of rotation of the mirror, and calculating a translation and rotation matrix from the mirror coordinate system to the base coordinate system.

Abstract: A system includes one or more antennas; and a processor to control a directionality of the antennas in communication with a predetermined target using 5G protocols.

Abstract: A mobile device is fitted with a camera and an extended reality (XR) software application program executing on a processor within an XR system. Via the XR software application program, various techniques are performed for manipulating virtual objects in an XR environment. In a first technique, the XR software application program facilitates the movement of a virtual object from a first location to a second location. In a second technique, the XR software application program facilitates the rotation of a virtual object. In a third technique, the XR software application program facilitates the scaling of a virtual object along one or more axes.

Abstract: A viewing device for a vehicle is provided with plural cameras, an image generation unit, a display and a switching control unit. The plural cameras have different imaging ranges. On the basis of captured images from one or a plural number of the cameras, the image generation unit generates plural viewing images that differ in at least one of viewpoint or viewing angle. The display displays the viewing images. The switching control unit is capable of switching a viewing image being displayed at the display to another of the viewing images.

Abstract: Through discrimination of the scattered signal polarization state, a lidar system measures a distance through semi-transparent media by the reception of single or multiple scattered signals from a scattering medium. Combined and overlapped single or multiple scattered light signals from the medium can be separated by exploiting varying polarization characteristics. This removes the traditional laser and detector pulse width limitations that determine the system's operational bandwidth, translating relative depth measurements into the conditions of two surface timing measurements and achieving sub-pulse width resolution.

Abstract: An imaging apparatus includes a micro-electro-mechanical system (MEMs) optical device that is operable to switch an optical image input path between first and second optical image output paths. A spectral imaging sensor is aligned with the first optical image output path and an imaging sensor is aligned with the second optical image output path. A multiplexing controller is configured to selectively operate the MEMs optical device to alternatingly collect spectral image data from the spectral imaging sensor and image data from the imaging sensor.

Abstract: In particular embodiments, a system includes a processor operable to receive, from a client device, a user selection of 360-degree media content to display on a display device that is separate from the client device. The processor is further operable to provide the selected 360-degree media content for display on the display device. The processor is further operable to receive motion data from the client device, the motion data indicating motion of the client device. The processor is further operable to provide instructions to adjust a viewing direction within the 360-degree media content displayed on the display device according to the received motion data from the client device.

Abstract: The disclosed teachings disclose a method, apparatus, and system for generating a virtual wall in an augmented reality (AR) environment to simulate art displays. In particular, an AR environment may be generated based upon data representing the physical environment. Additionally, virtual artwork may be positioned on a virtual wall corresponding to a physical wall in the physical environment. The AR environment may further facilitate the selection, modification, and purchase of the simulated artwork.

Abstract: An apparatus comprising an interface and a processor. The interface may be configured to receive (i) a spherical video stream and (ii) data from a playback device to determine a region of interest. The processor may be configured to (a) generate an encoded spherical video stream from the spherical video stream, (b) select a target area for one or more upcoming frames of the encoded spherical video stream corresponding to the region of interest, (c) encode the target area using first parameters, (d) encode a remaining area of the encoded spherical video stream outside of the target area using second parameters and (e) present the one or more upcoming frames to the playback device. Encoding using the first parameters may have a different bitrate than using the second parameters.

Abstract: The infrared detector acquires measurement information which is obtained by measuring infrared radiant energy amount in a measuring range including a mobile terminal; acquires information indicating a reference temperature; detects infrared radiant energy distribution area indicating an area where the infrared radiant energy amount corresponding to the mobile terminal is measured out of the measuring range, based on measurement information; and calibrates a conversion table for converting infrared radiant energy amount to a temperature value based on infrared radiant energy amount in the detected infrared radiant energy distribution area and the reference temperature.

Abstract: Examples of devices, systems, and methods to automatically generate haptics based on visual odometry are disclosed. In one example, a video having a plurality of frames is received and an optical flow estimate between a first frame from the plurality of frames and a second frame from the plurality of frames is created. In this example, the second frame is subsequent to the first frame. An apparent movement of a stationary object between the first frame and the second frame is detected based at least in part on the optical flow estimate in this example and at least one haptic effect corresponding to the apparent movement of the stationary object is generated based at least in part on the optical flow estimate. The generated haptic effect(s) may be output to a haptic file or a haptic output device, or both.

Abstract: A measuring device 101 measures the spin of a spherical body. A templater 102 acquires a template image in which the spherical body is captured from a video in which the spherical body is captured or a photographic image in which the spherical body is captured under photographing conditions comparable to the vireo. A clipper 103 extracts a region similar to the template image from the video and acquires multiple clipped images having the center position and size matched. A calculator 104 calculates and arranges in the chronological order similarities/dissimilarities between the clipped images to acquire a matrix. An estimator 105 estimates the spin of the spherical body from the distribution of elements in the matrix of similarities/dissimilarities.