Disclosed is a mirror display system. The mirror display system includes a sensor module, a mirror display including an optical mirror and a display, and at least one control circuit electrically connected to the sensor module and the mirror display, wherein the at least one control circuit may determine a first angle value indicating a graze direction of a user reflected in the optical mirror through the sensor module, determine a distance value between a subject reflected in the optical mirror and the mirror display, determine a depth value of the subject on the mirror display based on the first angle value and the distance value, and display an object having a depth value corresponding to the depth value of the subject through the display.

A dimensioning system can include stored data indicative of coordinate locations of each reference element in a reference image containing a pseudorandom pattern of elements. Data indicative of the coordinates of elements appearing in an acquired image of a three-dimensional space including an object can be compared to the stored data indicative of coordinate locations of each reference element. After the elements in the acquired image corresponding to the reference elements in the reference image are identified, a spatial correlation between the acquired image and the reference image can be determined. Such a numerical comparison of coordinate data reduces the computing resource requirements of graphical comparison technologies.

Embodiments relate to the field of image processing technologies, and in particular, to an image processing method and apparatus. In embodiments, when an image is being photographed, an exposure time that is required is first determined, and if the required exposure time is longer than a preset exposure time, the preset exposure time is used to photograph N second images, that is, and a final image is obtained by processing the N second images.

An imaging device includes an imager that images a multi-view image in which plural sub-images from plural viewpoints are aligned, a display that displays images; and a Central Processing Unit (CPU). The CPU is configured to: generate a main reconstruction image for viewing display after photographing by a main image generation process from the sub-images of the multi-view image, and store the main reconstruction image; obtain image displacement degrees for the sub-images respectively, wherein each of the image displacement degrees indicates a displacement between a position of a predetermined part in a sub-image and a position of a part corresponding to a photographic object captured in the predetermined part in another sub-image; determine a clipping size of partial images clipped from a predetermined range of the sub-images included in the multi-view image; and cause the display to display the main reconstruction image in the viewing display after the photographing.

The present invention addresses the problem of obtaining a vehicle-mounted image recognition device capable of improving the efficiency of image processing. This vehicle-mounted image recognition device 100 for solving the abovementioned problem sets a stereoscopic vision image region 502 in each of captured images 501 captured by a pair of right and left cameras, while setting a monocular vision image region 503 in the captured image 501 captured by one of the cameras, scans each of the captured images captured by the pair of right and left cameras along an image scanning line in a right-left direction, distributes the scanned image into stereoscopic vision image data obtained by scanning the inside of the stereoscopic vision image region 502 and monocular vision image data obtained by scanning the inside of the monocular vision image region 503, performs stereoscopic vision image processing using the stereoscopic vision image data, performs monocular vision image processing using the monocular vision image data, and recognizes an object corresponding to the type of an application using image processing results.

Provided is a method of spatially referencing a plurality of images captured from a plurality of different locations within an indoor space by determining the location from which the plurality of images were captured. The method may include obtaining a plurality of distance-referenced panoramas of an indoor space. The distance-referenced panoramas may each include a plurality of distance-referenced images each captured from one position in the indoor space and at a different azimuth from the other distance-referenced images, a plurality of distance measurements, and orientation indicators each indicative of the azimuth of the corresponding one of the distance-referenced images. The method may further include determining the location of each of the distance-referenced panoramas based on the plurality of distance measurements and the orientation indicators and associating in memory the determined locations with the plurality of distance-referenced images captured from the determined location.

The use of one or more angled or curved and diverging light pipes or reflectors placed in a light source's, e.g. diode's, emission path at appropriate distances, angles and divergence, such that a diode's emission spot size is modified and or redirected from the diode's natural emission path to alternative planes at angle to the diode's natural emission path so that a diode emission safe spot size can be achieved on any plane at angle to the original diode natural emission path at minimum distances from the diode's point of emission.

A microscopy method for three-dimensionally imaging an object, including imaging the object along a beam path into a first image on a first image plane. A first microlens array is arranged on the first image plane, and a second microlens array with the same pitch is arranged downstream of the first array. The two arrays laterally segment the first image and image same into a second image in which the segments are spaced apart and separated by gaps. On a pupil plane downstream of the microlens array, a provided phase mask generates a spot for each segment of the second image according to a pixel diffusion function. A detector detects the shape and structure of the spot, and a controller ascertains a lateral intensity distribution and depth specification from the shape and/or structure of the spot for each segment and generates a depth-resolved image of the object therefrom.

A microscopy method for three-dimensionally imaging an object, including imaging the object along a beam path into a first image on a first image plane. A first microlens array is arranged on the first image plane, and a second microlens array with the same pitch is arranged downstream of the first array. The two arrays laterally segment the first image and image same into a second image in which the segments are spaced apart and separated by gaps. On a pupil plane downstream of the microlens array, a provided phase mask generates a spot for each segment of the second image according to a pixel diffusion function. A detector detects the shape and structure of the spot, and a controller ascertains a lateral intensity distribution and depth specification from the shape and/or structure of the spot for each segment and generates a depth-resolved image of the object therefrom.

This specification describes a method comprising selecting at least one content stream from a plurality of content streams based on at least one detected characteristic associated with the content streams or an intended viewer of the content streams, wherein each content stream is captured by a corresponding recording device and at least one of the plurality of content streams is not selected, and compressing data representing the at least one selected content stream such that the content of the at least one selected content stream has a lower quality compared to the content of the at least one non-selected content stream.