Towards Quantifying Information Leakage of Timing Attacks in Cyber-Physical Systems

Timing side-channel attacks exploit variations in execution time to infer confidential information from a system’s behavior. In this paper, we develop a formal framework for analyzing timing side-channel leakage in cyber-physical systems by modeling their digital twins. We rely on a process-algebraic calculus for digital twins to express timing-sensitive behaviors and define its semantics using probabilistic Markov models. This enables rigorous quantification of information leakage based on execution timing variations. By leveraging entropy-based analysis, we measure an attacker’s ability to infer secret states from observable execution delays.

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Published
2025-08-07
DOI
https://doi.org/10.1109/acdsa65407.2025.11166117
Primary Topic
Smart Grid Security and Resilience
Type
article
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article

Towards Quantifying Information Leakage of Timing Attacks in Cyber-Physical Systems

Sepehr Amir-Mohammadian
Smart Grid Security and Resilience
article

Towards Quantifying Information Leakage of Timing Attacks in Cyber-Physical Systems

Sepehr Amir-Mohammadian
article en

Abstract

Timing side-channel attacks exploit variations in execution time to infer confidential information from a system’s behavior. In this paper, we develop a formal framework for analyzing timing side-channel leakage in cyber-physical systems by modeling their digital twins. We rely on a process-algebraic calculus for digital twins to express timing-sensitive behaviors and define its semantics using probabilistic Markov models. This enables rigorous quantification of information leakage based on execution timing variations. By leveraging entropy-based analysis, we measure an attacker’s ability to infer secret states from observable execution delays.

University of the Pacific (US)
Openalex Percentile: Top 67%
Smart Grid Security and Resilience
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