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From Scaling Laws to Safety Laws: How Capability Growth Drives Controls

  • Writer: Paulina Niewińska
    Paulina Niewińska
  • Dec 8, 2025
  • 3 min read

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The same empirical forces that made frontier models powerful (data/parameter/compute scaling) also push organizations to adopt scaling-aware safety controls: capability thresholds, staged deployment gates, and stronger red-team and monitoring as models cross those thresholds.



Step-by-step: the technical foundations

  1. Scaling laws 101. Early work (Kaplan et al.) showed predictable loss improvements from scaling parameters, data, and compute; later, Chinchilla research emphasized data-efficiency and “compute-optimal” tradeoffs. Together, they explain why bigger isn’t always better without more tokens—and why data curation and training runs matter for risk and cost.

  2. Compute is compounding. Epoch AI’s model database summarizes a 4–5× annual growth in training compute for frontier runs through 2024. This quantifies why new capability plateaus keep appearing—and why your risk thresholds must be dynamic.

  3. Labs are translating scaling into safety policies.

    • Anthropic’s Responsible Scaling Policy (RSP): AI Safety Levels (ASL) set rising requirements (security, evals, deployment constraints) as capabilities grow.

    • DeepMind’s Frontier Safety Framework (FSF v3): focuses on “high-impact capabilities” and the mitigations required when they’re detected.

    • OpenAI Preparedness Framework (2025 update): defines risk categories (bio/chem, cyber, persuasion, autonomy), measurement protocols, and mitigations tied to risk scores.


  4. Governments are codifying the pattern. The UK/US AISI joint pre-deployment evaluation of o1 is a concrete template for capability-linked testing pre-release; NIST AI RMF frames how to govern and measure risk over the lifecycle.


What this means for your control stack (checklist)


  • Define capability thresholds that trigger stricter controls (e.g., jailbreak-resistant fine-tuning, stronger isolation, human-in-the-loop). Use ASL/FSF/Preparedness as reference patterns.


  • Adopt “pre-deployment gates.” Require third-party or government-style evals for high-impact uses; mirror AISI’s domain testing (cyber, bio, persuasion) where applicable.


  • Scale monitoring with capability. The more general-purpose the model, the stronger your continuous red-teaming and incident response need to be; RMF gives you process guardrails.


  • Mind regional expectations. EU AI Act documentation and transparency requirements will influence global enterprise buyers, including in Dubai/DIFC. Prepare your technical file and post-market plan early.




Key takeaways for leaders


  • Scaling (parameters, data, compute) explains rapid capability jumps; therefore, safety controls must scale with capability.

  • Labs and governments are converging on thresholded policies (ASL/FSF/Preparedness + AISI evals).

  • Convert that convergence into practice: define capability thresholds, gate releases, and strengthen continuous red-teaming as models evolve.



Quick Q&A


Q1. Do bigger models always mean higher risk?

Generally, more capable models expand more misuse surfaces; risk depends on controls and deployment context. Treat capability increases as triggers for stronger safeguards.


Q2. What are concrete “capability thresholds”?

Examples: reliable code execution, tool-use autonomy, high-fidelity bio/cyber assistance, or persuasion benchmarks. Crossing a threshold upgrades required controls.


Q3. How many thresholds should we define?

Start with 3–4 levels mapped to your risk appetite (e.g., Low/Medium/High/Critical) and align them with supplier frameworks (ASL/FSF/Preparedness).


Q4. What’s a pre-deployment gate in practice?

A decision checkpoint requiring targeted evals, red-team evidence, and mitigations (rate limits, human-in-the-loop, isolation). Releases can be approved, approved with constraints, or blocked.


Q5. What changes when a model gets a major upgrade?

Re-run the gate: repeat evals, re-assess thresholds, re-issue documentation, and update user-facing disclosures.


Q6. Is open-weight adoption riskier than API use?

It can be if you fine-tune or enable tool-use without isolation. You also inherit patching, key management, monitoring, and data governance duties.


Q7. How do we budget for safety work?

Allocate a fixed % of project effort (e.g., 10–20%) to evaluation, red-teaming, logging, monitoring, and post-market reviews.


Q8. [Developing] Will hardware leaps compress these cycles further?

Possibly. Treat single-source media claims cautiously and rely on primary lab/government disclosures for decisions.



# AI scaling laws, compute trends in AI, AI safety levels, frontier safety framework, OpenAI preparedness, EU AI Act documentation, AISI pre-deployment evaluations, Dubai AI campus companies.

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