An integrated socio-technical framework that combines Human Factors methods, safety analysis, and cybersecurity modelling within a Secure-by-Design approach is presented, reframing cybersecurity as a socio-technical reliability problem comparable to safety engineering.
Abstract
Cyber-attacks on critical infrastructure are increasing in scale and sophistication, yet cybersecurity practice remains dominated by technology-centric assessments that insufficiently represent human contributions to risk. In cyber-physical systems (CPS), non-malicious human actions -including slips, mistakes, workarounds, training gaps, and misaligned procedures- frequently create, amplify or fail to detect vulnerabilities.This paper presents an integrated socio-technical framework that combines Human Factors (HF) methods, safety analysis, and cybersecurity modelling within a Secure-by-Design approach. The framework models how human performance variability influences cyber vulnerability and safety outcomes, enabling structured, scenario-based risk assessment and the derivation of traceable engineering requirements. An illustrative application demonstrates how HF findings are translated into human error mechanisms, cyber effects, unsafe control actions, safety impacts, and prioritised Secure-by-Design controls. By operationalising HF methods as cybersecurity engineering tools, the approach reframes cybersecurity as a socio-technical reliability problem comparable to safety engineering.
This paper investigates the security requirements of CPHS encompassing confidentiality, integrity, availability, authentication, and authorization, in the context of CPHS, and systematically categorize and analyze attack vectors across three dimensions that can impact the security and trustworthiness of CPHS.
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