A method for calculating a strong tracking fading factor in a distributed fusion structure
A technology of fading factor and calculation method, which is applied in the field of strong tracking fading factor calculation, and can solve the problems of computational burden and hindering the application of strong tracking filtering technology.
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Embodiment 1
[0021] Example 1: Linear Fusion System
[0022] Suppose the state space model of the distributed linear fusion system is:
[0023] x(k+1)=F(k)x(k)+w(k)
[0024] z i (k)=H i (k)x(k)+v i (k),i=1,2,...,N s
[0025] Among them, the subscript i is the sensor label, and k is the discrete time. x(k)∈R n×1 Indicates system status (R n×1 Is the complete set of n-dimensional column vectors), F(k) is the state transition matrix of the system, w(k)∈R n×1 Is the process noise vector and is Gaussian white noise with a mean value of zero and a variance of Q(k). z i (k)∈R m×1 Is the measurement vector of the i-th sensor, H i (k) is the measurement matrix of the i-th sensor at time k, v i (k)∈R m×1 Is the measurement noise of the i-th sensor, and the mean value is zero variance is R i (k) Gaussian white noise.
[0026] Suppose the initial state of the system is: P(0|0)=p(0), and x(0) is independent of w(k) and v respectively i (k).
[0027] Below, based on figure 2 The flow chart shown details...
Embodiment 2
[0046] Example 2: Non-linear fusion system
[0047] Suppose the state space model of the distributed nonlinear fusion system is:
[0048] x(k+1)=f(x(k))+w(k)
[0049] z i (k)=h i (x(k))+v i (k)
[0050] Where x(k)∈R n×1 Represents the state of the system, f(x(k)) is a nonlinear differentiable function, w(k)∈R n×1 Is the process noise vector and is Gaussian white noise with a mean value of zero and a variance of Q(k). z i (k)∈R m×1 Is the measurement vector of the i-th sensor, h i (x(k)) is the nonlinear differentiable function of the i-th sensor at time k, v i (k)∈R m×1 Is the measurement noise of the i-th sensor, and the mean value is zero variance is R i (k) Gaussian white noise.
[0051] Suppose the initial state of the system is: P(0|0)=p(0), and x(0) is independent of w(k) and v respectively i (k).
[0052] The specific implementation steps of the present invention in the nonlinear fusion system are detailed below:
[0053] Step 1: Parameter initialization
[0054] (1.1) Syste...
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