Abstract:
An image processing method for processing a plurality of images, the image processing method includes: step S11 of acquiring a plurality of first images, each of the plurality of first images taken with each of a plurality of imaging devices; step S12 of acquiring first imaging clock times, each of the first imaging clock times corresponding to each of the plurality of first images; and S13 of selecting a plurality of second images from the plurality of first images, each of second imaging clock times corresponding to each of the plurality of second images, the second imaging clock times (i) being substantially matched with each other and (ii) included in the first imaging clock times; and generating an image set constructed with the plurality of second images.
Abstract:
In a photographing method in which a terminal device performs photographing, a clock of the terminal device is synchronized with a clock of a server that is a reference, photographing clock time information indicating a photographing clock time based on the clock is acquired through a network, and the photographing is performed at the photographing clock time indicated by the photographing clock time information based on the clock of the terminal device already synchronized with the clock.
Abstract:
An image photographing method for sharing a shared image, which is a plurality of images obtained by photographing an identical subject 103 with a plurality of cameras or an image generated from the plurality of images, between a plurality of users of the plurality of cameras, the image photographing method including: judging whether a target camera that is one of the plurality of cameras photographs subject 103 (S401); and allowing a user of the target camera to browse the shared image according to a period in which the target camera photographs subject 103 (S403) when the judgement that the target camera photographs subject 103 is made (Yes in S402).
Abstract:
In a method, M (M is a natural number smaller than N) cameras capturing images to be displayed are selected from N (N is a natural number equal to or larger than 2) cameras capturing images of a same scene. The method includes obtaining positions and image capture angles of the N cameras and selecting M cameras from the N cameras on the basis of the obtained positions and image capture angles of the N cameras.
Abstract:
A distance measurement system comprises distance measurement devices, including a LiDAR sensor and at least one other distance measurement device, and a storage device storing three-dimensional point cloud data based on distance measurement data acquired by each of the distance measurement devices. The LiDAR sensor comprises a light-emitting device that can change an emission direction of a light beam, a light-receiving device that detects reflected light from the light beam and outputs a signal indicating a detection result, and a processing circuit that controls the light-emitting device and the light-receiving device to generate the distance measurement data on a basis of the signal outputted from the light-receiving device. The processing circuit references the point cloud data to determine at least one empty area in the point cloud data, and measures distance in the empty area by causing the light-emitting device to emit the light beam toward the empty area.
Abstract:
There is provided a video delivery method for a server that delivers to a terminal device a video signal based on a plurality of videos obtained by shooting an identical scene from a plurality of different viewpoints over a plurality of successive periods, the method including: selecting a selected video from among the plurality of videos for each of the plurality of periods in accordance with rating values of the plurality of videos, the rating values being given by a plurality of users; and transmitting to the terminal device the video signal for successively replaying a plurality of the selected videos respectively selected for the plurality of periods.