A AEGIS audited evidence

Prospective sensing · separate authorization · bounded response

Read the transition.
Govern the response.

AEGIS has been tested as a separable training-control system: sense a state transition, decide whether it warrants action, then apply a bounded response. The strongest evidence is end-to-end containment for abrupt high-loss disturbances across Qwen and Llama. The current policy is a utility demonstration—not an optimal controller.

Commercial modelConditional

Value comes from avoided restart, rollback, recovery, or degradation exposure when a qualifying incident occurs.No universal savings rate is asserted.

one governed system

3×

separable layers

sensing · authorization · response
4 / 5fresh shifted-onset runs localized prospectively
0 / 18stationary, clean, and valid-shift controls acted
3 cohorts5 / 5 Qwen · 5 / 5 Llama · 3 / 3 Qwen3-4B at registered endpoints
2 auditskey failed gates remain visible, not post-hoc rescued

What the evidence validates

Not one score. A control ontology.

The research program now tests three different questions independently. A useful monitor must notice a transition, distinguish observation from authorization, and demonstrate that a bounded response can change downstream outcomes.

Claim discipline: these layers are related, but they are not interchangeable. Detection does not automatically authorize intervention; containment does not prove the detector chose the optimal time; observed specificity does not prove universal safety.

Confirmed containment cohorts

The end-to-end loop changed downstream outcomes.

Confirmed boundaryApproximately 1B → 4BQwen + Llama · matched studies

The frozen system detected and acted in the registered transfer studies. This supports bounded architecture and scale tolerance—not parameter-count invariance, universal model agnosticism, distributed-training efficacy, or frontier-scale validation.

Outcome discipline: the cards retain each study's own registered endpoint. They are not pooled into one synthetic “success rate,” because milestone loss gaps and damage-area reduction are related but not identical estimands.

Denominator discipline: this console does not headline a cumulative run total. Historical runs, development smokes, reused controls, prospective arms, and confirmation seeds overlap in ways that make one grand number easy to misread.

Dose response, opened up

Utility is real, bounded, and dose-sensitive.

Prospective Qwen dose confirmation

Residual downstream damage

Shadow damage Governed damage

Bars show the registered downstream damage-area metric. Smaller is better. The result establishes containment of optimizer damage; it does not mean AEGIS repairs the source data.

Exploratory transfer—not pooled confirmation

The envelope is widening, with qualification failures intact.

New full-parameter 7B and vision studies add useful boundary evidence. They do not enter the 13-pair confirmed headline because their gates, confounds, and endpoints differ.

Registered negative results

The failed gates sharpen the claim.

AEGIS is not being described as optimal because the repository contains direct evidence against that stronger story. These tests constrain what the system can honestly be said to do.

Operational integration

One health layer. Your intervention contract.

01

Observe

AEGIS monitors training health in real time through proprietary model-internal signals alongside ordinary run telemetry.

02

Route

The agreed authorization gate routes a qualifying event into the operator-selected response contract.

03

Respond

Choose alert, checkpoint, quarantine, halt, adaptive braking, or a staged combination. Operator authority remains intact.

Integrated demonstration: adaptive braking shows that monitoring, authorization, and bounded response can operate as one system; it is one policy option, not the prescribed or optimal deployment model. Across 8 stationary, 5 clean, and 5 difficult-but-valid negative controls, the frozen live policy authorized no actions.

Conditional economic translation

Estimate avoided incident exposure—not generic training efficiency.

The model is intentionally simple: annual training compute budget × the share exposed to qualifying incidents × the share of that exposure a validated containment policy could avoid. The last two inputs belong to the operator and must be measured in a pilot.

Illustrative avoided exposure$625Kscenario only; not an observed AEGIS savings rate or frontier-scale forecast

Trace the claim

Aggregate receipts with explicit limits

Supported: prospective transition sensing, separate authorization, and bounded containment for a registered high-loss disturbance class. Open: optimal timing and control, low-loss harmful regimes, reliable recurrent protection, distributed efficacy, frontier scale, and customer-specific avoided-cost validation.

Claim boundary

What this proves—and what it doesn’t.

AEGIS shows that real-time sensing, authorization, and bounded response can work as one system. The operator chooses how that system responds.

Prospective matched studies support transition localization and reduction of downstream optimizer damage for a registered high-loss disturbance class across Qwen and Llama, with confirmed transfer through Qwen3-4B.