Optimal-coupling-observer AV motion control securing comfort in the presence of cyber attacks
Farzam Tajdari, Georgios Papaioannou, and Riender Happee

TL;DR
This paper introduces an optimal-coupling-observer framework for AVs that enhances safety and comfort by detecting and mitigating sensor attacks, ensuring stable car following and ride comfort even under cyber threats.
Contribution
The paper presents a novel observer-based method that secures AV motion control against bounded sensor attacks while maintaining passenger comfort, a focus often overlooked in security studies.
Findings
Framework effectively detects attacked sensors and switches to reliable observers.
Secures occupant safety and comfort under bounded cyber attacks.
Attacks have negligible impact on ride comfort indexes.
Abstract
The security of Automated Vehicles (AVs) is an important emerging area of research in traffic safety. Methods have been published and evaluated in experimental vehicles to secure safe AV control in the presence of attacks, but human motion comfort is rarely investigated in such studies. In this paper, we present an innovative optimal-coupling-observer-based framework that rejects the impact of bounded sensor attacks in a network of connected and automated vehicles from safety and comfort point of view. We demonstrate its performance in car following with cooperative adaptive cruise control for platoons with redundant distance and velocity sensors. The error dynamics are formulated as a Linear Time Variant (LTV) system, resulting in complex stability conditions that are investigated using a Linear Matrix Inequality (LMI) approach guaranteeing global asymptotic stability. We prove…
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Taxonomy
TopicsTraffic control and management · Vehicle Dynamics and Control Systems · Smart Grid Security and Resilience
