A system and method of synchronizing auxiliary content to a video stream is disclosed that uses a block of bit-vectors linked to a target frame in a video steam. The block of bit-vectors consists of a multi-frame sequence of image bit-vectors. The video stream and block of bit-vectors are transmitted to an end user device that uses the bit-vector block to uniquely identify the target frame. The target frame is used to synchronize auxiliary content to the video stream.

Embodiments of the present disclosure provide a video generating method, apparatus, electronic device, and computer storage medium. The method comprises: receiving a user's video capturing operation through a video playing interface of an original video; in response to the video capturing operation, superimposing a video capturing window on the video playing interface, capturing a user's video, and displaying the user's video through the video capturing window; and combining the user's video with the original video to obtain a combined video. According to the embodiments of the present disclosure, the combined video by combining the user's video with the original video may be obtained conveniently and quickly, and the operation process is simple and fast, and the actual application requirements of the user can be better meet, which improves the users' interactive experience.

An electronic device is provided. The electronic device includes a first image sensor, a second image sensor electrically connected to the first image sensor, and a processor operatively connected to the first image sensor and the second image sensor. The processor may be configured to generate first image data using the first image sensor and generate second image data using the second image sensor based on a synchronizing signal, transmit the second image data generated by the second image sensor to the first image sensor, and control the first image sensor to generate and output image data by processing the first image data and the second image data based on the synchronizing signal.

A signal processing apparatus, signal processing method, program, and signal transmission system can transmit 8K or 4K video signals stably through a device of 100 Gbps. A signal processor includes a mapping unit configured to map an 8K or 4K video signal onto first data streams, prescribed by a predetermined format, of plural channels, and a multiplexer configured to generate plural first data blocks by scrambling the first data streams of either odd-numbered or even-numbered channels, first bits by first bits, invert the polarity of data blocks which are part of the first data blocks, generate plural second data blocks by 8B/10B-converting the first data streams of the other channels, second bits by second bits, and generate serial second data streams of plural lanes by multiplexing the first data blocks and the second data blocks. The processor is applicable to a broadcasting camera, for example.

An electronic device is provided. The electronic device includes a first image sensor, a second image sensor electrically connected to the first image sensor, and a processor operatively connected to the first image sensor and the second image sensor. The processor may be configured to generate first image data using the first image sensor and generate second image data using the second image sensor based on a synchronizing signal, transmit the second image data generated by the second image sensor to the first image sensor, and control the first image sensor to generate and output image data by processing the first image data and the second image data based on the synchronizing signal.

An image transmission method includes obtaining multi-channel images shot by a plurality of shooting devices of an unmanned aerial vehicle (UAV) having different shooting directions, and broadcasting the multi-channel images obtained in real time to a plurality of ground-end devices synchronously.

A semiconductor device including a selection section that selects and outputs one video signal from plural input video signals; a clock signal output section that outputs a clock signal that corresponds to the video signal selected by the selection section; and a masking section that, for a predetermined period starting from a point when the clock signal output from the clock signal output section is switched in accordance with a switching of the selection of the video signal, performs masking processing on a synchronization signal that, among plural synchronization signals that correspond respectively to the plural video signals, corresponds to the video signal selected by the selection section. The selection section outputs the selected video signal in synchronization with the synchronization signal that corresponds to the selected video signal and that has undergone masking processing.

A receiving apparatus includes: an antenna configured to receive, by a radio wave, an image signal acquired by a capsule-type endoscope; a memory configured to store a determination table or a determination function, each being used for determining an interference level of the radio wave; and a processor comprising hardware, the processor is configured to: acquire a received signal strength of the image signal received by the antenna; generate determination information used for determining the interference level of the radio wave based on one or more synchronization signals included in the image signal; determine the interference level of the radio wave based on the received signal strength and the determination information by using the determination table or the determination function; and control to output information indicating that electromagnetic interference occurs, when the determined interference level of the radio wave is greater than a preset interference level.

In order to eliminate timing offset between reproduction devices when a content transmitted from a distribution device is received and reproduced by a plurality of reproduction devices, data (SCR) indicating the elapsed time from the start of the content, generated by counting clock pulses, and data (FCR) indicating a frame number generated by counting the number of frames reproduced by a decoder (54) are transmitted by the distribution device, and a clock generation unit (103) in each reproduction device is controlled so that data (STC) indicating the elapsed time and data (FTC) indicating the frame number, which are generated in the same manner by each reproduction device, match the transmitted data (SCR, FCR). Synchronization between reproduction devices can thereby be established even when, in a state in which a content is being reproduced by one reproduction device, another reproduction device subsequently connects to the distribution device.

A VLC signal representing an alignment identifier is detected by cameras (4) of multiple user devices (1, 2, 3) filming a scene. Encoded video frames (91, 92, 93) from the user devices (1, 2, 3) are decoded and light patterns representing the captured VLC signal are identified in at least some of the video frames following decoding. The light patterns are decoded into alignment identifiers that are used in order to time align video frames (91, 92, 93) from different user devices (1, 2, 3) to thereby achieve video frame synchronization of video data from multiple user devices (1, 2, 3) recording a scene. The embodiments thereby enable video frame synchronization without the need for accurate clock synchronization between the user devices (1, 2, 3) and a video synchronization system (10).