Dangerous Capabilities

Definition

Dangerous capabilities are risk-relevant abilities AI systems may possess that — independent of their stated training objective — enable or amplify catastrophic harm. The AI Safety Atlas Ch.2 identifies five canonical capability families (Atlas Ch.2 — Dangerous Capabilities; see atlas-ch2-risks-02-dangerous-capabilities):

  1. Deception — producing outputs that systematically misrepresent information when advantageous.
  2. Situational awareness — recognizing self, context, and oversight conditions.
  3. Power-seeking — preserving options and acquiring resources.
  4. Autonomous replication — independently copying, spreading, and adapting to obstacles.
  5. Agency — observable goal-directed behavior, steering outcomes despite obstacles.

This is distinct from capability-evaluations, which is the practice of measuring such capabilities. “Dangerous capabilities” names the targets; “capability evaluations” is the methodology.

Why it matters

Dangerous capabilities are the operational substrate of every catastrophic-risk argument. Without them, even a maximally misaligned model is contained by its limitations; with them, even a borderline-misaligned model becomes load-bearing for safety planning (Phuong et al. 2024, Evaluating Frontier Models for Dangerous Capabilities; Atlas Ch.2).

Two structural reasons the framing matters:

  • Capability and disposition are decoupled. A system possessing a capability can deploy it adversarially even if it currently doesn’t. This is why all major frontier-safety frameworks (RSP, OpenAI Preparedness Framework, DeepMind FSF) gate decisions on capability thresholds, not behavioral ones (Atlas Ch.2; Phuong et al. 2024).

  • The combinatorial argument. Any single capability has bounded harm potential; combinations create disproportionate risk. Agency + deception → long-term manipulation; agency + situational awareness → eval-gaming; power-seeking + autonomous replication → reach beyond any single deployment context (Atlas Ch.2). This logic is the foundation of the ai-control thesis.

Key results

Open questions

  • How well-calibrated are current capability thresholds? The frontier-safety frameworks specify “red-line” capabilities qualitatively but lack quantitative trip-wires (Atlas Ch.2; Phuong et al. 2024).

  • What are the right combinations to measure? The combinatorial argument predicts that joint-capability evaluation matters more than individual-capability evaluation. Most current eval suites measure capabilities individually; joint-capability methodologies are early-stage (Atlas Ch.2).

  • Do current evals detect sandbagged capabilities? A model with situational awareness can deliberately underperform on capability evaluations to avoid triggering safety responses. Whether elicitation-based evals (fine-tuning, prompting harder, scaffolding) reliably surface true capability is empirically open (Phuong et al. 2025; see sandbagging-evals).

  • At what capability level does “dangerous capability evaluation” become unreliable in principle? The eval methodology assumes the evaluator can verify capability. Once the model is meaningfully more capable than the evaluator at the task being judged, the evaluation hits the scalable-oversight ceiling.

  • Is the five-capability taxonomy stable? As frontier models develop, additional capabilities (long-horizon planning, multi-agent coordination, cyber offense) may need to be added or some merged. The taxonomy is current best practice but not stable (Phuong et al. 2024).

Sources cited

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