NAGENo Age for Cognition
No Age for Cognition

The knowledge layer
for AI you can trust.

Conventional models blend sources into an opaque state. The NAGE architecture is designed to keep governed knowledge separable and source-known, then carry an inspectable record with the answer.

FIG. 01 — KLM

Four layers.
One traceable mind.

The target layer model unfolds: managed knowledge units are intended to remain separable, carry origin metadata and be assembled only within declared boundaries.

L1 Retrieved L2 Declarative L3 Procedural L4 Metacognitive
Assembling
Structured Knowledge Layers
Keep knowledge inspectable.
Beyond two models

Two models ask.
KLM One governs both.

Language models know. Action models do. Neither alone supplies a complete governance record. KLM One is the candidate standard for specifying how knowledge layers and records should remain controlled, updateable and reviewable.

Built on Absolute Five
01

Efficiency

A reported research configuration added a 351.6 MB domain layer — roughly 2.1% additional weight — without retraining the whole model.

Reported · +2.1% · 351.6 MB
Fig. 03 — Anatomy of a VARVE

A structured,
reviewable knowledge-unit design.

In the target architecture, a VARVE separates knowledge content, operating boundaries and provenance fields. Core Payload, Boundary Shell and Audit Anchor name those intended responsibilities; their deployment evidence must be evaluated separately.

Architecture principle — Governed learning

A boundary against
user-data training.

The target design keeps customer knowledge outside the core optimization loop behind an explicit training boundary. That separation must be validated for each deployment; a declared record does not by itself prove training isolation.

Improve the system. Protect the data.
Hero
Layers
Origin
Purities
Scroll to begin
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Components as citizens, not rigid services

Named deployment units behave as coordinated parts of one knowledge process; each role and handoff still needs a deployment-specific contract.

How it works

A candidate standard called KLM One. A reference architecture called SEDIM One.

KLM One defines a candidate record vocabulary for layered knowledge. SEDIM One separates the architectural responsibilities; the current service uses Qwen3-8B grounding and records while trained layers remain in development.

KLM ONEThe candidate standard

The candidate standard describes layered, sourced and updateable knowledge without treating every capability as current implementation. Language remains the interface; the record vocabulary defines what can be inspected.

SEDIM ONEThe reference architecture

SEDIM One describes how source-aware answers, records and target managed layers divide responsibility. Today, grounding and records are available; trained layer application remains a development path.

Record disclosureAttribution, declared

The record can disclose the sources and signals declared for an answer. That creates inspectability within scope; it does not by itself prove causal participation or answer truth.

Evaluation-ready

Bring source and record evidence into the review path.

Governance and regulatory reviews often need traceability. A NAGE record can expose declared sources and signals for review, while the applicable requirements and additional assurance controls remain deployment-specific.

The deep technical dive is available to beta partners. Talk to us.
Architecting AI accountability

The question has changed.

Capability brought AI into the enterprise. Accountability determines whether it can stay there.

01 / 06

Why should I trust this answer?

An answer that looks correct is not enough. Governed AI must show exactly what it used, where that knowledge came from and why the resulting claim has a basis.

02 / 06

Escape the melting pool.

The target layer model keeps managed knowledge in modular, source-known pieces that can be governed independently.

03 / 06

Verify the claim, not just the paragraph.

A response can contain both supported and unsupported statements. A validated claim-level method should make that difference visible; the failed lexical baseline is not such a method.

04 / 06

Silence can be the right answer.

When evidence is insufficient, the system should say so. Knowing that it does not know protects the user from a plausible but ungrounded output.

05 / 06

Audit what changes.

A governed operating model should make affected records discoverable when knowledge changes, then define which checks must be rerun. That lifecycle behaviour remains an explicit acceptance criterion.

06 / 06

Not smarter. More accountable.

The NAGE platform direction brings modular knowledge, intentional silence, claim-level review and re-verification into one bounded evaluation model.

Read the full story
01 / 06
Platform overview

One record. Across the system.

KLM defines a candidate record vocabulary. SEDIM supplies the reference architecture. Nage AI OS carries records across the operating environment.

Availability and evidenceOpen full platform overview →
SystemAvailabilityThe record must answer
KLMPublic charter; candidate standard. Full public v1.0 forthcoming.Which record fields and checks describe the result?
SEDIMGrounding and records with Qwen3-8B.Which sources and signals participated?
Nage AI OSOperating components with implementation-specific gaps.Which service owns each handoff and disclosure?
Craton / ProResearch and development.Can managed layers supply usable knowledge?

Scope note. A shared record makes a result inspectable within its stated scope. It is not a blanket guarantee.

Follow one record

From output to a check another recipient can run.

The walkthrough reads the same bundled synthetic fixture used by the Record Lab. It does not invent a second demonstration record.

Synthetic fixture / starting point

One request becomes a reviewable record.

Begin with the declared request, output and disclosure scope before interpreting any score or signature.

Request
Loading fixture…
Answer
Loading fixture…
Disclosure
Loading fixture…

Scope. Fixture values are synthetic and dated 15 September 2026. They are not production measurements or calibrated probabilities.

Verification workspaceChange the answer. Recompute the record.

Closed by default. Checks run locally in the browser against the public synthetic fixture and test key.Open the full Record Lab →

Evidence and scope

Read the artefact, the boundary and the open work together.

02 · Trust boundaries

A valid record is not a blanket guarantee.

Integrity, signature, support, identity and execution answer different questions. Missing evidence remains visible.

Review trust and limits →
03 · Current and target

Available today stays separate from the research path.

The current service uses Qwen3-8B grounding and records. Trained layers and Craton remain development and research programmes.

Compare architecture states →
A bounded evaluation

Four decisions before a production claim.

  1. 01

    Choose the workflow.

    Name the decision, recipient and consequence that make the answer worth governing.

  2. 02

    Define the source set.

    Agree which evidence is permitted, who owns it and how lifecycle changes are handled.

  3. 03

    Agree the checks.

    Set integrity, support, silence, key-trust and handoff acceptance criteria before testing.

  4. 04

    Review against criteria.

    Run the bounded scenario, retain the record and document open risks without upgrading them into claims.

Reported evidence snapshot

Research metrics, kept in their source scope

0.0265
Validation loss
120×
Faster convergence
94.5%
Language routing (TR)
351.6 MB
Per knowledge layer
90.6
SEDIM-Bench

Scope. These reported metrics belong to the supplied 15 September 2026 evidence edition and are not a single production benchmark or service-level guarantee.

Evolution is running

Meet the new dawn.

The Qwen3-8B grounding-and-record path is open for a scoped controlled beta; target trained layers remain in development.