Framework Quantifies Systemic AI Harms in Critical Infrastructure

Paul Vautravers, Oliver Chalkley, Gabriel Downer, Kate S, Damian Ruck· August 26, 2026 View original

Key takeaways

  • Current AI evaluation is model-centric and lacks system-level risk insight.
  • A new framework links hazard analysis, component testing, and system modeling.
  • It quantifies systemic harms from AI in critical sociotechnical systems.
  • Adversarial AI inputs can significantly impact system resilience, as shown in financial systems.

Who benefits

BFSIEnergyTransportationGovernmentHealthcare

Summary

Researchers propose a framework to quantify system-level harms from AI adoption in complex sociotechnical systems, like Critical National Infrastructure. It links hazard analysis, component testing, and probabilistic system modeling to trace model behavior to systemic outcomes, enabling evidence-based governance of AI risks.

A new research paper introduces a comprehensive framework designed to quantify the system-level harms that can arise from integrating AI into complex sociotechnical systems, particularly Critical National Infrastructure (CNI). The authors argue that current AI evaluation methods are too model-centric and fail to provide insight into how AI failures translate into broader systemic risks involving technical, human, and organizational elements. The proposed framework bridges this gap by connecting structured hazard analysis, component-level testing, and probabilistic system modeling. This integrated approach creates a traceable pathway from specific AI model behaviors to their potential system-wide consequences, allowing practitioners to understand the "so what?" of AI failures and quantify their overall impact. This enables a more evidence-based and anticipatory approach to AI governance in critical contexts. As an illustrative example, the framework was applied to the UK's Real Time Gross Settlement (RTGS) financial system. Researchers derived AI-driven loss scenarios using Systems Theoretic Process Analysis (STPA) and examined adversarial manipulation of LLM-based trading. Component-level experiments showed that even simple adversarial inputs could induce behavioral shifts in AI recommendations, which, when mapped to a financial contagion model, increased bank failures and lowered the threshold for cascading disruption, especially with widespread AI adoption.

Why it matters

As AI permeates critical infrastructure, understanding and quantifying its systemic risks is paramount for ensuring stability, safety, and resilience. This framework provides a structured methodology for proactive risk assessment and governance.

How to implement this in your domain

  1. 1Adopt structured hazard analysis techniques (e.g., STPA) to identify potential AI-driven loss scenarios within your critical systems.
  2. 2Develop component-level testing protocols to evaluate how AI model behaviors might shift under various conditions, including adversarial inputs.
  3. 3Integrate probabilistic system modeling to simulate how observed AI behaviors could propagate into system-level outcomes.
  4. 4Establish a clear mapping between AI model performance metrics and their potential impact on overall system resilience and stability.
  5. 5Use the framework's insights to inform and strengthen AI governance policies and risk mitigation strategies for complex sociotechnical systems.

Original post by Paul Vautravers, Oliver Chalkley, Gabriel Downer, Kate S, Damian Ruck

"arXiv:2608.23906v1 Announce Type: new Abstract: Artificial Intelligence (AI) is increasingly integrated into complex sociotechnical systems, including Critical National Infrastructure (CNI), where harms emerge from interactions between technical, human, and organisational element…"

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Originally posted by Paul Vautravers, Oliver Chalkley, Gabriel Downer, Kate S, Damian Ruck on X · view source

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