返回
A Closed-Loop Output Error Approach for Physics-Informed Trajectory Inference Using Online Data
DOI:10.1109/TCYB.2022.3202864.png)
摘要
En 中文
While autonomous systems can be used for a variety of beneficial applications, they can also be used for malicious intentions and it is mandatory to disrupt them before they act. So, an accurate trajectory inference algorithm is required for monitoring purposes that allows to take appropriate countermeasures. This article presents a closed-loop output error approach for trajectory inference of a class of linear systems. The approach combines the main advantages of state estimation and parameter identification algorithms in a complementary fashion using online data and an estimated model, which is constructed by the state and parameter estimates, that inform about the physics of the system to infer the followed noise-free trajectory. Exact model matching and estimation error cases are analyzed. A composite update rule based on a least-squares rule is also proposed to improve robustness and parameter and state convergence. The stability and convergence of the proposed approaches are assessed via the Lyapunov stability theory under the fulfilment of a persistent excitation condition. Simulation studies are carried out to validate the proposed approaches.
Keyword:
Trajectory
Inference algorithms
Physics
Convergence
Heuristic algorithms
State estimation
Noise measurement
Closed-loop output error (CLOE)
excitation signal
least-squares (LSs) composite rule
parameter identification
physics-informed model
states measurements
trajectory inference
期刊
IF:
10.5
论文数:
1.1W
被引数:
5.0W
机构
引用论文
Identification and optimal control of nonlinear systems using recurrent neural networks and reinforcement learning: An overview
NEUROCOMPUTING
IF6.5
Graph-Based Spatial-Temporal Convolutional Network for Vehicle Trajectory Prediction in Autonomous Driving基于图的时空卷积网络的自动驾驶车辆轨迹预测

