CyRes -- Avoiding Catastrophic Failure in Connected and Autonomous Vehicles (Extended Abstract)
Carsten Maple, Peter Davies, Kerstin Eder, Chris Hankin and, Greg Chance, Gregory Epiphaniou

TL;DR
This paper presents CyRes, a cyber resilience methodology for connected and autonomous vehicles, aiming to ensure safety, trust, and regulatory compliance in the deployment of advanced vehicle technologies.
Contribution
It introduces a standardized, court-testable cyber resilience framework tailored for automotive systems, enhancing safety and regulatory accountability.
Findings
CyRes provides a measurable evidence framework.
It ensures continuous safe operation of autonomous vehicles.
The methodology is suitable for legal and regulatory testing.
Abstract
Existing approaches to cyber security and regulation in the automotive sector cannot achieve the quality of outcome necessary to ensure the safe mass deployment of advanced vehicle technologies and smart mobility systems. Without sustainable resilience hard-fought public trust will evaporate, derailing emerging global initiatives to improve the efficiency, safety and environmental impact of future transport. This paper introduces an operational cyber resilience methodology, CyRes, that is suitable for standardisation. The CyRes methodology itself is capable of being tested in court or by publicly appointed regulators. It is designed so that operators understand what evidence should be produced by it and are able to measure the quality of that evidence. The evidence produced is capable of being tested in court or by publicly appointed regulators. Thus, the real-world system to which the…
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Taxonomy
TopicsSafety Systems Engineering in Autonomy · Software Testing and Debugging Techniques · Adversarial Robustness in Machine Learning
