The accuracy of response reconstruction using the Kalman Filter (KF) algorithm is degraded under non-Gaussian noise. To tackle this issue, a non-Gaussian Kalman filter algorithm for structural response reconstruction is proposed. Firstly, the L1 Kalman Filter (L1KF) algorithm is introduced to structural response reconstruction, followed by a revised definition of the loss function within the L1KF. Secondly, the coefficient matrix derived according to the loss function penalizes the noise covariance matrix of the state equation and the observation equation, making the KF algorithm applicable to non-Gaussian noise. Finally, the acceleration, velocity, and displacement responses of the structure are computed from a limited number of acceleration measurements. Both numerical simulations and an overhanging beam test show that the proposed method has good noise robustness using only a limited number of accelerometers, effectively reducing the reconstruction error. The large bias in response reconstruction using KF algorithm under multiple non-Gaussian noises is improved.
QI Yibo, PENG Zhenrui.
Structural response reconstruction under non-Gaussian measurement noise[J]. Journal of Vibration and Shock, 2024, 43(11): 206-216
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