
handle: 1807/82326
LIDAR (Laser Integrated Radar) is an engineering problem of great practical importance in environmental monitoring sciences. Signal processing for LIDAR applications involves highly nonlinear models and consequently nonlinear filtering. Optimal nonlinear filters, however, are practically unrealizable. In this paper, the Lainiotis′s multi‐model partitioning methodology and the related approximate but effective nonlinear filtering algorithms are reviewed and applied to LIDAR signal processing. Extensive simulation and performance evaluation of the multi‐model partitioning approach and its application to LIDAR signal processing shows that the nonlinear partitioning methods are very effective and significantly superior to the nonlinear extended Kalman filter (EKF), which has been the standard nonlinear filter in past engineering applications.
Signal theory (characterization, reconstruction, filtering, etc.), LIDAR estimation, remote sensing, adaptive filtering, multi-model partitioning, Lainiotis filters, extended Kalman filter, Survival analysis and censored data, Inference from stochastic processes and prediction
Signal theory (characterization, reconstruction, filtering, etc.), LIDAR estimation, remote sensing, adaptive filtering, multi-model partitioning, Lainiotis filters, extended Kalman filter, Survival analysis and censored data, Inference from stochastic processes and prediction
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