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Aethr Research / Evaluation

Evaluations & Technical Reports

Research claims should be traceable to evidence.

AETHR uses evaluations, ablations, implementation audits, and technical reports to separate what a model is designed to do from what it has actually demonstrated. This page is the evidence layer of our research programme: the methods we use to inspect our models, the reports we publish, the limitations we retain, and the standards we expect a result to meet before it becomes a public claim.

Evidence discipline

We separate what was built from what was demonstrated.

A model architecture can contain a mechanism without proving that the mechanism is beneficial. A training configuration can specify a capability without proving that the trained checkpoint learned it. A historical experiment can contain an interesting result without having sufficient provenance to support a public claim. AETHR therefore treats evidence status as part of the research itself — design intent is not the same as evidence.

Implemented

Established directly from code or configuration. Example: OMN's parallel residual topology or optimizer routing.

Observed

Measured directly from an artifact or checkpoint. Example: parameter count or learned Q/K gain values.

Reported

Recorded in historical analysis but not independently reproduced from preserved raw outputs.

Interpreted

A conclusion or hypothesis derived from measurements.

Uncertain

An unresolved question where existing evidence is insufficient.

Planned

A future experiment, evaluation, or qualification activity.

AETHR does not collapse all six into “result.”

Evaluation surface

A model is more than a benchmark score.

01

Architecture

Does the implementation match the intended design? Are dimensions, routing, parameter tying, normalization, masking, and precision policies correct? Examples: OMN block topology · QK-Norm placement · optimizer routing.

02

Optimization

How do different optimizer paths affect training? What changes under matched compute? Are update transformations behaving as intended? Examples: Muon / AdamW routing · learning-rate policy · future matched baselines.

03

Training system

What data was actually consumed? Are document boundaries preserved? Does loss accounting reflect valid targets? Can interrupted training recover correctly? Examples: packing · masking · token accounting · checkpoint lineage.

04

Model behaviour

What does the trained checkpoint actually demonstrate? Language modelling, reasoning, coding, long-context behaviour, and specialization belong here — eventually, with qualified panels. No historical OMN benchmark numbers appear on this page unless they have been publication-qualified.

05

Interventions & ablations

What happens when a learned mechanism is modified? Can an observed dependency be separated from causal architectural benefit? Example: QK-Norm gain intervention.

06

Deployment reliability

A future-facing direction, not a completed programme. How does a model behave when connected to tools, data, workflows, or industrial systems? Abstention, evidence traceability, tool boundary compliance, failure recovery, human escalation.
SOURCE / IMPLEMENTATIONARCHITECTURE VERIFICATIONTRAINING VERIFICATIONCHECKPOINT ANALYSISBEHAVIOURAL EVALUATIONINTERVENTION / ABLATIONDEPLOYMENT QUALIFICATION
AETHR treats evaluation as a chain of evidence rather than a single benchmark layer.

Publications

Current research reports

Every entry below is a real, live publication — except where explicitly marked in preparation, in which case it is not clickable. No fabricated dates, no placeholder reports.

Method

From experiment to public claim

A result should not become a headline merely because a script produced a number. Where possible, AETHR preserves the full provenance chain behind every published claim:

  1. 01Question
  2. 02Implementation
  3. 03Controlled experiment
  4. 04Raw artifact
  5. 05Reproduction / audit
  6. 06Interpretation
  7. 07Public claim

Concretely: code revision, model and checkpoint identity, tokenizer identity, evaluation dataset revision, raw outputs, configuration, random seed, metric definition, plotting source, and known limitations.

Standard

What a technical result should carry with it

Model identity
Checkpoint hash
Source identity
Revision / fingerprint
Data identity
Dataset and revision
Evaluation protocol
Prompting / scoring configuration
Raw results
Preserved artifact
Metric definition
Exact calculation
Limitations
Known boundaries
Status
Implemented / observed / reproduced

Not every historical OMN experiment meets this standard yet. Some early experiments predate it and are being requalified before being treated as publication-grade evidence. That honesty is intentional.

Maturity

Not every interesting result belongs on a benchmark chart.

The OMN audit uncovered results with absent output files, divergent baselines across evaluation panels, conflicting spectral summaries, incomplete benchmark provenance, and configured capability confused with demonstrated capability. Those results remain internal until they can be regenerated or properly qualified.

The purpose of evaluation infrastructure is not to protect impressive numbers. It is to make incorrect conclusions harder to preserve. AETHR would rather narrow a claim than preserve a number we can no longer defend.

Future direction

Where the evaluation programme goes next

None of the following is claimed as complete. Each is an active direction:

Architecture ablations

Matched experiments

Optimizer routing, QK-Norm, block topology, normalization — each against controlled baselines that do not yet exist.

Scaling

Across Darwin scales

How OMN-derived principles behave across Darwin Type-S and Type-M.

Long-context qualification

Separated measurements

Configured context, training exposure, retrieval, and generation stability — measured independently, never conflated.

Specialization

Domain models

Evaluated against base models, domain baselines, retrieval/tool systems, and deterministic engineering checks.

Agentic / tool use

Bounded behavior

Tool correctness, argument correctness, permission boundaries, abstention, recovery.

Industrial deployment

Consequential evaluation

Evidence traceability, physical consistency, uncertainty, false-confidence rate, unsafe recommendation rate, human escalation.

Systems

In consequential systems, correctness cannot come from the model alone.

For future Industrial Intelligence deployments, some questions should be answered by deterministic engineering or validated software rather than generative inference. The intended architecture: the model reasons, interprets, and proposes; tools calculate, retrieve, and verify; policies bound allowed actions; the human retains authority. Evaluation must therefore assess the complete system, not only the language model.

Safety, Reliability & Control

Honesty

What this page does not imply

AETHR does not currently claim:

  • exhaustive safety evaluation
  • frontier-model certification
  • complete benchmark coverage
  • verified robustness across every deployment environment
  • production qualification for autonomous industrial control
  • universal reproducibility of every historical OMN experiment

This page documents the evaluation standards AETHR is establishing and the evidence that currently meets them.

Read the evidence.