Systems and methods for implementing sensory configurations in accordance with certain embodiments of the invention are illustrated. One embodiment includes an imaging system that includes cameras, wherein each camera includes image sensor(s). The imaging system includes video links, wherein each of the video links is configured to: connect a particular camera to a central processor, and carry power, from the central processor to the particular camera. The imaging system includes a memory that stores instructions for processing image data obtained from the cameras. The central processor is configured to execute the instructions to perform a method. The method aggregates the image data for each camera of the plurality of cameras to produce aggregated image data, using at least one mobile industry processor interface (MIPI) aggregator. The method processes the aggregated image data to produce a set of at least one environmental image.

A data transmitter includes a first transmitting device which scrambles digital image data using a scramble key and transmits the scrambled image data; and a second transmitting device which descrambles the scrambled image data using a descramble key to restore the image data, wherein the second transmitting device restores the descramble key using predetermined pattern data input during a horizontal blank period when synchronization with the first transmitting device is released.

A synchronous camera apparatus including a plurality of high-speed cameras according to the present invention includes a plurality of high-speed cameras each including an imager unit that sequentially images a target video image at a set exposure timing, a video recording memory, a video recording unit that video-records a predetermined image imaged by the imager unit as an image frame of digital data in the video recording memory by input of a trigger signal, and a system control unit that has a timer and performs various types of calculations, and synchronization signal means a setting for setting synchronization signal in each of the high-speed cameras and transmitting the set synchronization signal to each of the high-speed cameras. The synchronization signal is a trigger time. The synchronization signal is a sequence number matching time and a trigger sequence number.

The sink device according to an embodiment of the present disclosure comprises a memory configured to store a mapping table, an external device interface configured to receive a video signal from a source device through HDMI (High-Definition Multimedia Interface) standard and a controller configured to obtain a horizontal total value, a vertical total value, and an output frequency based on the video signal, obtain a pixel clock frequency mapped to the horizontal total value, the vertical total value, and the output frequency from the mapping table, and output the video signal based on the obtained pixel clock frequency.

A central recording device coupled to at least one sub-recording device and comprising a recording unit, a processing unit, a storage unit and a connection unit is provided. The recording unit is configured to generate central image data. The processing unit is coupled to the recording unit and configured to: receive at least one sub-image data from the sub-recording device; perform an image synchronization process on the central image data and the sub-image data to generate streaming image data; and in response to receiving a trigger signal, retrieve a portion of the streaming image data corresponding to a specified time period to generate a streaming video. The storage unit is coupled to the processing unit and configured to store the streaming video. The connection unit is coupled between the processing unit and a server, and configured to upload the streaming image data and the streaming video to the server.

A video switching system, which can be part of an audio video receivers (AVR), enables simultaneous routing of multiple independent video streams (e.g., 8K video streams) received at HDMI inputs of the AVR from digital media sources to multiple selected digital display devices.

An apparatus for processing a serialised stream of video data includes a receiver configured to receive the serialised stream of video data, which includes a plurality of video frames, each video frame including a plurality of frame lines, at least one frame line including a group of active pixels and one or more blanking pixels, a memory configured to buffer the serialised stream of video data until all of the active pixels of a frame line have been buffered, one or more processors configured to, for each group of active pixels of a frame line, generate a data structure including the group of active pixels and a frame line position indicator and omitting at least one blanking pixel, and a transmitter configured to intermittently onwardly transmit the data structures by pausing transmission after each data structure has been transmitted until a next data structure is ready for transmission.

An image processing device includes a channel interface, including a data channel, a vertical synchronization line, a horizontal synchronization line, and a data enable line, and a combiner configured to convert N pieces of first image data (where N is a positive integer greater than or equal to 2) into second image data having a different image format, time-divide and output the second image data to the data channel, output N vertical synchronization signals for the second image data to the vertical synchronization line, and output N data enable signals for the second image data to the horizontal synchronization line and the data enable line.

The sink device according to an embodiment of the present disclosure comprises a memory configured to store a mapping table, an external device interface configured to receive a video signal from a source device through HDMI (High-Definition Multimedia Interface) standard and a controller configured to obtain a horizontal total value, a vertical total value, and an output frequency based on the video signal, obtain a pixel clock frequency mapped to the horizontal total value, the vertical total value, and the output frequency from the mapping table, and output the video signal based on the obtained pixel clock frequency.