Abstract: Methods, systems, and apparatus, including computer programs encoded on a storage device, are disclosed. A system includes one or more processors and one or more computer storage media storing instructions that are operable, when executed by the one or more processors, to cause the one or more processors to perform operations. The operations include: obtaining an image from a camera coupled to a garage; determining that a garage door has opened; in response to determining that the garage door has opened, determining that a vehicle position satisfies an alert criteria based on the image from the camera; and in response to determining that the vehicle position satisfies the alert criteria based on the image from the camera, providing a visual alert for a driver of the vehicle on a signaling device coupled to the garage.

Abstract: A system and method for rendering an object box of an object in an image is provided in the present disclosure. The method includes obtaining a plurality of images, in a temporal sequence, each of the plurality of images relating to an object. The method also includes obtaining a first processed image by performing a smart algorithm analysis on a first image in the plurality of images, the smart algorithm analysis including identifying the object in the first image and determining a first coordinate of the object in the first image. The method further includes determining a first pixel distance between the object in two adjacent images in the plurality of images and rendering an object box for the object in each of the plurality of images for display based on the first coordinate of the object in the first image and the first pixel distance.

Abstract: A device includes a first polarized image sensor configured to capture first image data relating to an object from a first perspective. The device also includes a second polarized image sensor configured to capture second image data relating to the object from a second perspective different from the first perspective. The device further includes a processor configured to obtain at least one of polarization information or depth information of the object based on at least one of the first image data or the second image data, and to extract a feature of the object based on the at least one of the polarization information or the depth information.

Abstract: A system comprises an encoder configured to compress attribute information and/or spatial information for a point cloud and/or a decoder configured to decompress compressed attribute and/or spatial information for the point cloud. The encoder is configured to convert a point cloud into an image based representation. The encoder packs patch images into an image frame and fills empty spaces in the image frame with a padding. The encoder is also configured to determine quantized minimum depths and/or maximum depths patch images in the image frames, wherein depth information is signaled relative to the quantized minimum depth.

Abstract: An encoder that; obtains two prediction images by performing motion compensation using two motion vectors; obtains a gradient value of each of pixels included in the two prediction images; derives a local motion estimation value for each of sub-blocks based on the pixel value and the gradient value of each of the pixels, the sub-blocks being obtained by partitioning the current block; and generates a final prediction image for the current block using the pixel value and the gradient value of each of the pixels, and the local motion estimation value derived for each of the sub-blocks. Each of the pixels in the two prediction images is interpolated with sub-pixel accuracy, and a reference range for the interpolation is included in a normal reference range that is referred to for motion compensation for the current block in normal inter prediction performed without using the local motion estimation value.

Abstract: A system and method for high-resolution polarimetric imaging can include an array of micro-cameras to simultaneously capture polarized optical information from a wide area. Polarized illumination sources can be placed below and/or above the sample to direct polarized light to the sample during image capture. Post processing can be performed on the captured images to obtain polarimetric properties of the sample.

Abstract: A method of tracking an image feature is described. The method comprises acquiring an image with a camera, and determining, using processing circuitry, a bounding area in the image, the bounding area surrounding a feature in the image. The method further comprises determining, using processing circuitry, a rotation axis and a rotation angle based on a first focal length of the camera and a position of the bounding area relative to a center of the image. The method further comprises determining, using processing circuitry, at least one of a pan angle, a roll angle, and a tilt angle for the camera at which the bounding area is centered in the image. The method further comprises adjusting, using a gimbal, an orientation of the camera based on the at least one of the pan angle, the roll angle, and the tilt angle.

Abstract: An image pickup apparatus includes: a first member, in which a plurality of optical members are laminated; a second member including an image pickup device; and a third member including a spacer and a frame, a first through-hole that penetrates through the spacer and a second through-hole that has a larger sectional area in a direction that perpendicularly intersects an optical axis than a sectional area of the first through-hole and that penetrates through the frame are provided in the third member, the third member is glued to the first member, the second member is disposed in the second through-hole, and a front surface of the second member abuts on a second main surface of the spacer, and the frame is a frame body that shields light that is incident on the second through-hole from an image pickup side surface that is a side surface of the second member.

Abstract: A camera assembly and an electronic device having the same are provided. The camera assembly includes a main board, a cover plate, a camera, an infrared lamp and a deflection member. The mainboard and the cover plate are arranged parallel to and spaced apart from each other. The camera and the infrared lamp are arranged on a side of the main board facing towards the cover plate, and spaced apart from each other. The deflection member is arranged on a side of the cover plate facing towards the main board, and is opposite to the camera. The deflection member is configured to deflect infrared light emitted by the infrared lamp towards a direction of a central axis of the camera.

Abstract: Hyperspectral, fluorescence, and laser mapping imaging with reduced fixed pattern noise are disclosed. A method includes actuating an emitter to emit a plurality of pulses of electromagnetic radiation and sensing reflected electromagnetic radiation resulting from the plurality of pulses of electromagnetic radiation with a pixel array of an image sensor to generate a plurality of exposure frames. The method includes applying edge enhancement to edges within an exposure frame of the plurality of exposure frames. The method is such that at least a portion of the pulses of electromagnetic radiation emitted by the emitter comprises one or more of: electromagnetic radiation having a wavelength from about 513 nm to about 545 nm, from about 565 nm to about 585 nm, from about 900 nm to about 1000 nm, an excitation wavelength of electromagnetic radiation that causes a reagent to fluoresce, or a laser mapping pattern.

Abstract: An intra-oral scanning device includes a light source and an optical system, and communicates with a display system. The device provides for more efficient transmission and capture of images. It integrates OCT scanning with RGB-based scanning. In operation, the device is used for recording topological characteristics of teeth, dental impressions, or stone models by digital methods and for use in CAD/CAM of dental restorative prosthetic devices. To that end, the RGB-based scan obtains surface data (e.g., a margin), while the OCT scan penetrates the surface. The two scanners operate from within the same physical housing and preferably at the same time such that only one scanning pass (to obtain all necessary data) is required. The 3D data obtained from the OCT scan is registered with the 3D data obtained from the RGB-based scan by virtue of being captured using a common return path.

Abstract: Techniques for coding coefficients in a residual block are described. A video coder (e.g., video encoder or video decoder) may code (e.g., encode or decode), in an interleaving manner, coefficient information on a coefficient-by-coefficient basis for coefficients in a residual block of a current block of the video data in a first pass, wherein the coefficient information for a coefficient includes one or more of a significance flag indicating whether a value of the coefficient is not zero, a parity flag indicating whether the value of the coefficient is odd or even, a sign flag indicating whether the value of the coefficient is positive or negative, and one or more greater than flags indicating whether an absolute value of the coefficient is greater than respective threshold values, and after the first pass, code remainder information for coefficients in the residual block of the current block in a second pass.

Abstract: A method for capturing images of large target area using a single low FOV high resolution camera mounted on an Aerial Vehicle for 3D reconstruction is disclosed. The camera captures sets of images consisting of a nadir image a plurality of oblique images at predefined waypoints or as the Aerial Vehicle travels along a flight path. Oblique images are captured in two perpendicular directions by tilting camera about a single tilt axis at one time thereby preventing bidirectional distortion of objects in images. Further, first direction and second direction define a quadrant of area below the Aerial Vehicle. Oblique images along two perpendicular directions are captured either by using roll and pitch axes, or by using a single tilt axis and a pan axis of camera control mechanism wherein using pan axis the single tilt axis is reoriented in a perpendicular orientation to capture oblique images in perpendicular direction.

Abstract: The present invention relates to an aircraft-utilizing deterioration diagnostic system and provides a technique capable of improving diagnostic efficiency and accuracy when comparing the previous and current aerially-photographed images to diagnose a deteriorated state of a target. The diagnostic system includes: a drone 1 (aircraft) configured to be navigated along a route around a target 5 and having a camera 4 configured to photograph the target 5; and a computer (PC 2 and server 3) configured to control navigation of the aircraft and photographing by the camera 4.

Abstract: An apparatus includes a transceiver circuit and a first controller circuit. The transceiver circuit may be configured to receive an uplink channel and transmit a downlink channel. The first controller circuit configured to (i) control operation of an unmanned aerial vehicle and a camera in response to commands received via the uplink channel, (ii) capture video data from the camera, (iii) generate a first encoded video stream having a first resolution and a second encoded video stream having a second resolution, (iv) store the first encoded video stream with time stamp information on a storage medium, (v) transmit the second encoded video stream and the time stamp information via the downlink channel, (vi) receive encoded audio information associated with previously transmitted time stamp information via the uplink channel, and (vii) combine the encoded audio information with the first encoded video stream stored on the storage medium using the associated time stamp information.

Abstract: An imaging system is described for measuring the position or movement of a particle having a size of less than about 20 microns. The system comprises an optional sample holder configured to hold a sample with a particle, an optional illumination source configured to illuminate the sample, a lens having a magnification ratio from about 1:5 to about 5:1 and configured to generate the image of the sample, an image sensor having a pixel size of up to about 20 microns and configured to sense the image of the sample, and an image processor operatively connected to the image sensor to process the image of the particle in order to determine the position or movement of the particle. The dimension of the image of each particle is at least about 1.5 times the dimension of the particle multiplied by the magnification ratio of the lens, and the image of each particle is distributed on at least two pixels of the sensor. The imaged area of the sample is at least about one millimeter squared.

Abstract: An information providing device 1 of a motorcycle includes: an image acquisition section 10 that acquires an image of a road; a lane detection section 12 that detects a lane from the image and detects a radius of curvature of the detected lane and a lateral distance from the host vehicle to the lane; a host vehicle trajectory curvature calculation section 14 that calculates a radius of curvature of a host vehicle trajectory on the basis of the radius of curvature of the lane and the lateral distance; a vehicle speed acquisition section 16 that acquires a vehicle speed of the host vehicle; an inclination angle calculation section 18 that calculates an inclination angle of the host vehicle on the basis of the radius of curvature of the host vehicle trajectory and the vehicle speed.

Abstract: Secure monitoring of the field of view of remotely located operators comprises capturing video and data signals representing a series of images including the forward field of view of the operator and the operator's ocular movement and may also include rearward and other operator fields of view. The images are transmitted to an operator microprocessor which, in turn, transmits the signals to a centrally located server where the signals are processed and the resulting information saved in files dedicated to respective operators.

Abstract: Various embodiments include a method for providing an image using a camera monitor system for a motor vehicle with a trailer, wherein the camera monitor system has a rear camera assigned to a rear side of the trailer, a side camera assigned to a longitudinal side of the motor vehicle, and a monitor for presenting images of the cameras. The method may include: capturing a first image with the rear camera; capturing a second image with the side camera; constructing a composite image comprising the first image and the second image based at least in part on an ascertained trajectory of the motor vehicle; and displaying the composite image on the monitor.

Abstract: The present disclosure describes a method, an apparatus, and a storage medium for dividing a coding unit of a video frame. The method includes determining, by a device, according to a correspondence relationship between a frame type and a coding unit type, a target coding unit type based on a target frame type of a target frame, the target coding unit type indicating a division depth for dividing the target frame. The method further includes determining, by the device, according to coding unit information of a target coding unit during dividing the target coding unit with the target coding unit type in the target frame, whether the target coding unit meets a target condition, to obtain a target result; and performing, by the device, a division operation corresponding to the target result on the target coding unit.