Simulation method for automatic pushing function of CCTV monitoring scene of urban rail full-automatic operation system
An operation system and function simulation technology, applied in traffic control systems, closed-circuit television systems, traffic control systems of road vehicles, etc., can solve problems such as single viewing angle, unfocused viewing point, unsatisfactory monitoring video push, etc., to reduce labor costs Effects of labor intensity, efficient operation, and safe operation
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Embodiment 1
[0064] Embodiment 1: The automatic push function simulation method of the CCTV monitoring scene of the urban rail automatic operation system, such as figure 1 shown.
[0065] S101: Analyzing the monitoring video signal input from each viewpoint respectively, the camera monitoring viewing angle range AFO of the corresponding viewpoint, the monitoring distance MD of the distance event, and the fluency prediction POF are respectively analyzed to obtain the first analysis result, the second analysis result, and the third analysis result. Analyze the results and store the input data and analysis results;
[0066] S102: Create a viewing angle range membership function Y according to the first analysis result, the second analysis result, and the third analysis result AFO (x,a,b), monitoring distance membership function Y MD (y,c,d), fluency prediction membership function Y POF (z,e) three membership functions; Y AFO (x,a,b) available Y AFO (x) indicates that Y MD (y,c,d) availa...
Embodiment 2
[0121] Embodiment 2: Taking a fire scene on a platform as an example for illustration, a fire scene occurs, and multiple cameras at different viewpoints on the scene receive fire video push instructions. This example assumes that two monitoring video signals L1 and L2 are received.
[0122] Assuming that the viewing angle of each camera’s monitoring range is θ=120゜, the angle between the event center position of the signal L1 and the sideline of the camera’s viewing angle range г 1 =60゜, the included angle of the event range S1=45゜, at this time the input data volume is 2kbit; the included angle г between the event center position of the signal L2 and the sideline of the camera viewing angle range 2 =30゜, the included angle of the event range S2=90゜, and the amount of input data is 3kbit.
[0123] After calculation, we know that Ф(г1)=0, D(S1)=84, y n+1 =2.31kbit; similarly, Ф(г2)=0.5, D(S2)=674.25, y n+1 =2.10kbit. Through preliminary comparison, it can be seen that Ф(г1)...
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