Multi-dimensional aircraft collision conflict risk evaluation system
A risk assessment, aircraft technology, applied in traffic control systems, instruments, flight plan management, etc., to solve problems such as conflicts
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Embodiment 1
[0055] A flow chart of a corresponding method for a multi-dimensional aircraft collision risk assessment system is shown in figure 1 As shown, the steps include:
[0056] S1, according to the size parameters of the aircraft model, the distance between the own aircraft and other aircraft in the three dimensions, and the standard deviation of the yaw distance, calculate the probability of the overlap between the own aircraft and other aircraft in the three dimensions.
[0057] S2, according to the probability that the own aircraft overlaps with other aircraft in the three dimensions, calculate the frequency of the lost interval of the own aircraft in the three dimensions every hour.
[0058] S3, according to the frequency of lost separation per hour in the three dimensions of the own aircraft, the speed difference between the own aircraft and other surrounding aircraft, the size of the aircraft type, the logarithm of aircraft flying in the same direction and opposite direction, ...
Embodiment 2
[0094] Assume that during a certain route flight phase, the width a between two routes 2 -a 1 =32km, take d=45km, σ 0 = 3.0, λ σ =0.03 Aircraft ground speed GS=900km / h, then T=180s, assuming V=V 1 =V 2 =V 3 U=U 1 =U 2 =U 3 W=W 1 =W 2 =W 3 , look for relevant information as shown in Table 1:
[0095] Table 1 parameter value table
[0096] parameter value E[S] 0.61 E[0] 0.01 L 120n miles U at
480konts U 13 konts V 60 konts W 1.0 konts Pz(0) 0.48
[0097] Now take two aircrafts B747-300 and A380 as the research object, seat A is B747-300, seat B is A380, take the average of the fuselage length, wingspan length, and fuselage height, then there is λ x =71.7m, λy =69.7m, λ z = 21.7m, bring these parameters into the calculation:
[0098]
[0099]
[0100] f 1 =1.2683×10 -9 times / flight hour
[0101] Refer to the aircraft altitude data, assuming the initial altitude difference H 2 -H 1 is 0.7...
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