Multiple sensor fault-tolerant predictive control for autonomous surface vehicle formation
Journal article, 2025

To address the problem of cooperative Autonomous Surface Vehicle (ASV) formation control under multiple sensor faults (e.g., abnormal positioning and speed data), this paper proposes a predictive fault-tolerant control approach based on the Distributed Extended Kalman Filter (DEKF) and Model Predictive Control (MPC), termed DEKF-MPC. An ASV formation path following model is established based on parameterized paths and virtual leader–follower structure, and the ASVs’ cooperative objective for formation is transformed into a specific trajectory tracking task for each ASV. Moreover, a DEKF state estimator based on Statistical Analysis with Random Sample Consensus EKF (SAR-EKF) and Short Term Memory EKF (STM-EKF) is designed by integrating multiple sensor faults into the DEKF process model and taking auxiliary data from fault-free ASVs as inputs to DEKF, to estimate the ASVs’ position, Speed Through Water (STW), and current speed. Then, the DEKF-MPC formation path following fault-tolerant controller is designed with a defined cooperative control objective function, estimated states, and multiple constraints. The simulation results show that the proposed DEKF-MPC approach outperforms the Adaptive Particle Filter-MPC (APF-MPC) and Random Sample Consensus-EKF-MPC (RANSAC-EKF-MPC) methods. It enables ASVs to accurately track target trajectories and maintain consistent headings, especially in the presence of multiple sensor faults.

Distributed extended kalman filtering

Path following

Fault-tolerant control

Autonomous surface vehicle formation

Multiple sensor faults

Model predictive control

Author

Wenxiang Wu

Wuhan University of Technology

Chenguang Liu

Wuhan University of Technology

Xiumin Chu

Wuhan University of Technology

Wengang Mao

Chalmers, Mechanics and Maritime Sciences (M2), Marine Technology

ISA Transactions

0019-0578 (ISSN)

Vol. In Press

Subject Categories (SSIF 2025)

Computer Vision and learning System

Robotics and automation

Control Engineering

DOI

10.1016/j.isatra.2025.07.053

More information

Latest update

8/15/2025