An adaptive learning and control architecture for mitigating sensor and actuator attacks in connected autonomous vehicle platoons

Xu Jin, Wassim M. Haddad, Zhong‐Ping Jiang, Aris Kanellopoulos, Kyriakos G. Vamvoudakis

International Journal of Adaptive Control and Signal Processing · 2019 · 37 citations · 35 references

Concepts

TL;DR

The paper proposes an adaptive controller to mitigate time‑invariant, state‑dependent sensor and actuator attacks in a platoon of human‑driven vehicles with an autonomous follower, ensuring uniform ultimate boundedness. The controller is enabled by an adaptive learning framework that identifies the system’s state‑space parameters from input‑output data using stored and current measurements under a relaxed persistence‑of‑excitation condition. A numerical example of a connected vehicle platoon demonstrates the approach’s effectiveness.

Abstract

Summary In this paper, we develop an adaptive control algorithm for addressing security for a class of networked vehicles that comprise a formation of human‐driven vehicles sharing kinematic data and an autonomous vehicle in the aft of the vehicle formation receiving data from the preceding vehicles through wireless vehicle‐to‐vehicle communication devices. Specifically, we develop an adaptive controller for mitigating time‐invariant state‐dependent adversarial sensor and actuator attacks while guaranteeing uniform ultimate boundedness of the closed‐loop networked system. Furthermore, an adaptive learning framework is presented for identifying the state space model parameters based on input‐output data. This learning technique utilizes previously stored data as well as current data to identify the system parameters using a relaxed persistence of excitation condition. The effectiveness of the proposed approach is demonstrated by an illustrative numerical example involving a platoon of connected vehicles.

References

35