Abstract: Provided is a shooting method for a shooting device, including steps of: starting the shooting device to begin shooting a video when the shooting device detects a face, and recording face feature information corresponding to the video; uploading the face feature information and the corresponding video to a server and saving the face feature information and the corresponding video according to an upload and save condition after the shooting is completed, wherein binding relation information between the face feature information and the corresponding video is generated; the server receiving retrieve information, retrieving and matching corresponding face feature information according to the retrieve information, and generating a matching result; and the server outputting, according to the matching result and the binding relation information, video information bound with the matched face feature information.

Abstract: A shooting method for a shooting device and an electronic equipment are provided, and the method including: a shooting device in a standby state detecting motion data and judging if the shooting device meets a starting condition according to the motion data, and starting the shooting device and beginning detecting faces if the shooting device meets the starting condition; determining, at least based on a situation of face detected by the shooting device, whether to start the shooting device to begin shooting a video, and recording face feature information corresponding to the video; and uploading, according to an uploading condition, the face feature information and the shot video corresponding to the face feature information to a server after the shooting is completed.

Abstract: The present disclosure relates to methods and associated systems that enable a user to managing multiple broadcasting images (e.g., live stream videos). The method includes, for example, (1) receiving multiple sets of live streams, at a server, from multiple image sources; (2) synchronizing the received sets of live streams; (3) identifying first/second sets of live streams from the received sets of live streams based on predetermined criteria; (4) analyzing the first/second live streams; (5) creating a predetermined configuration to decide a switching point of displaying areas at least based in part on the first status and the second status; (6) transmitting the first/second sets of live streams to a user device to display; and (7) in response to the predetermined configuration, enabling a user to switch the displayed live streams.

Abstract: The disclosed technology is directed to a floating system capable of facilitating transmitting underwater signals (e.g., images captured underwater) to an abovewater device. The system includes a first housing, a second housing, an antenna, a signal emitter, a signal converter, and a signal interface. The first and second housings collectively form an enclosed space. The antenna is vertically positioned on the top surface of the first main body. The signal emitter and the signal converter are positioned in the enclosed space and coupled to the antenna. The signal interface is positioned on the bottom surface of the second housing and coupled to the converter. A user can connect an underwater camera to the signal interface and transmit images captured underwater to another abovewater device through the floating system.

Abstract: The disclosed technology is directed to a sports camera capable of being connected with an external antenna. The sports camera includes a housing and a camera main body. The camera main body includes a processor, an image component, a communication component, and an antenna feed component. The housing includes an antenna connector (e.g., feed points) configured to connect with the external antenna (e.g., a pogo pin antenna). The antenna connector is coupled to the antenna feed component. The external antenna can enhance data transmission (e.g., live streaming of captured images) between the sports camera and other devices.

Abstract: Methods and associated systems for generating images with objects of interests positioned at pre-determined locations and in specific orientations (e.g., vertical to the horizon) are disclosed. The method includes generating a preview image by an image component and identifying an object of interest in the preview image. The system then determines a desirable view angle at least based on an orientation of the object of interest. The system generates an original image and a current dip angle based on a measurement performed by a tilt sensor. The system calculates an angle of rotation based on the current dip angle and the desirable view angle. The system then edits or adjusts the original image to form an edited or adjusted image that can be presented to a user.

Abstract: The present disclosure is directed to a system that can incorporate information into captured images. The system includes a first encoder that can process image information captured from an image component and a second encoder that can process information collected from a sensor. The system further includes a synthesizer to combine the outputs from both the first encoder and the second encoder. The synthesizer can then generate an output and transmit it to a decoder, which decodes the generated output and then transmits the decoded output to a display. The display then visually presents the decoded output to a user. By this arrangement, the system enables a user to view information collected by the sensor and the captured image at the same time.