Deep auto-encoder observer multiple-model fast aircraft actuator fault diagnosis algorithm

In the extended multiple model adaptive estimation fault diagnosis algorithm, the extended Kalman filter has theoretical limitations, and the establishment of accurate aircraft mathematical model is almost impossible. Meanwhile, there is no automatic method to optimally select the node number of deep neural network hidden layer. In this paper, a deep auto-encoder observer multiple-model fault diagnosis algorithm for aircraft actuator fault is proposed. Based on the empirical formula of the basic auto-encoder hidden layer node number selection (three layered neural network), the recursive formula for deep auto-encoder hidden layer node number selection are proposed. The deep auto-encoder observers for no-fault and different actuator faults are trained to observe the system state. Combined with multiple model adaptive estimation, the deep auto-encoder observer overcomes the theoretical limitation of extended Kalman filter, and avoided the calculation of the nonlinear system Jacobian matrix. The simulation results show that hidden layer node number selection recursive formula is useful. The fault diagnosis algorithm is more efficient and has better performance compared to the standard methods.

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