R&D BioTech Alaska / Brain

Brain End-to-End Quantum Intelligence

Final-R6 is Brain's accepted cortex baseline. It combines compact neural state with explicit memory, evidence, semantic reasoning, and exact QSA computation. Cortex repair is complete; the current research phase develops learning, governed recall, knowledge, and conversation.

Accepted architecture
Final-R6
Mutable language state
29.93M scalars
Persisted neural state
49.32M scalars

Current research state

Final-R6 / post-cortex development

accepted

Post-cortex training and intelligence development. Cortex repair is closed; anti-forgetting and Brain-native runtime authority remain active.

Mutable language state
29,930,048 scalars / 54 tensors
Persisted Final-R6 neural state
49,324,558 scalars / limit ≤50M
Protected systems
Final-R6 / V22 / Query192
Public deployment
Conversational early access in preparation
Updated September 14, 2026Next: fresh ARC-Easy / PIQA / WinoGrande after training

Final-R6 architecture

A compact cortex inside a larger cognitive system

Brain does not ask one neural weight matrix to store, retrieve, reason, verify, remember, and govern everything. The cortex works inside a controlled architecture whose other parts remain explicit and testable.

Final-R6 / accepted baseline

Cortex repair is closed. Final-R6 is the accepted baseline.

Final-R6 brings the completed cortex repair into a fixed architecture for post-cortex learning. Its persisted neural state contains 49,324,558 scalars, including 29,930,048 mutable language scalars across 54 tensors. Training develops language and intelligence under Brain-native authority while established routes remain protected.

  1. 01Cortex repair
  2. 02Final-R6 acceptance
  3. 03Governed training
  4. 04Fresh evaluation

Verified or implemented

  • 49,324,558 persisted neural scalars within a 50M limit
  • 29,930,048 mutable language scalars / 54 tensors
  • Final-R6, V22, and Query192 protected
  • Anti-forgetting and route preservation active
Final-R6 accepted / September 2026 research-state update
  1. Memory + evidenceRetrieve with source identity
  2. Semantic stateBind entities, roles, and constraints
  3. HypothesesMaintain competing explanations
  4. World + proceduresConstruct candidate outcomes
  5. QSA computationExecute exact admitted state work
  6. Brain authorityDecide, record, or reject

Benchmark observatory

Research results, with their lineage intact

August benchmark results and the September 2 evidence study retain their original cohorts and controls. Fresh Final-R6 evaluation follows the current post-cortex training sequence.

pending fresh evaluation

Final-R6 fresh benchmark: Pending

ARC-Easy / PIQA / WinoGrande. The historical ~30M benchmark record is preserved independently. Experimental intermediate scores do not replace that record or supply a fresh Final-R6 result.

September 2, 2026 / Evidence Frontier Study
17 target-free evidence sources / 5 benchmark families
Aggregate coverage98.99%2,354 / 2,378
measured

Historical correct-candidate availability / includes ARC-Challenge

Correct evidence was available in 2,354 of 2,378 cases.

Across the frozen domain, at least one legal source proposed the correct candidate in all but 24 cases. This measures information coverage inside Brain's evidence state, not final-answer accuracy. Subsequent cortex development addressed the reconstruction, relation, authority, and final-selection problems exposed by this study.

  1. 012,378

    Frozen domain

    Target-free internal validation cases
  2. 022,354

    Correct evidence present

    98.99% aggregate / 98.14% macro
  3. 032,101

    V3 candidate + parent union

    88.35% aggregate / 82.63% macro
  4. 04253

    Recoverable evidence gap

    Correct evidence not preserved by V3
ARC-Challenge52 / 5594.55%
BoolQ625 / 625100.00%
HellaSwag523 / 54496.14%
PIQA575 / 575100.00%
WinoGrande579 / 579100.00%

rejected The terminated V3 run preserved a 2,101 / 2,378 candidate-plus-parent union: 88.35% aggregate and 82.63% macro. It was rejected. The 253-case gap records correct evidence that V3 did not preserve. This is a historically informative result from the pre-Final-R6 research stage.

Historical fixed-parameter records / August 2026measured

200 fresh ARC questions

Grounded evidence doubled the fresh ARC result.

Inherited Brain43 / 200
Measured result92 / 200
Measured change+49 correct / +24.5 points

What changed

Candidate-specific evidence was evaluated through question anchoring, candidate relation, and grounded support before the answer was selected.

  • No retraining
  • No target labels in the reasoning path
  • Protected Brain state unchanged
  • No donor model at runtime

QSA and the information-identical classical product selected the same answers. This proves a strong architecture gain, not a uniquely quantum accuracy advantage.

Historical ~30M Benchmark Lineage
ARC-Easy / PIQA / WinoGrande
Historical profile~30M Brain

Overlaps published performance ranges of several larger reference models. Protocols are not identical.

Task identityARC-Easy

This table uses ARC-Easy. The September 2 five-task evidence study uses ARC-Challenge.

Current architectureFinal-R6

49.32M persisted neural scalars, including 29.93M mutable language scalars.

Fresh Final-R6 resultsPending

Evaluation follows the current training sequence. Historical scores do not transfer to a new build.

ModelParametersARC-EasyPIQAWinoGrande
BrainHistorical ~30M profile estimate~30M~54-55%~66-67%~55-56%
OPTPublished zero-shot reference125M41.3%62.0%50.8%
GPT-NeoPublished zero-shot reference125M40.7%62.5%50.7%
MobileLLMPublished model evaluation125M43.9%65.3%53.1%
PythiaPublished model evaluation410M47.1%67.2%53.4%
MobileLLMPublished model evaluation350M53.8%68.6%57.6%
Qwen1.5Closest three-task reference500M54.7%68.9%55.0%
MobileLLMPublished model evaluation600M58.1%72.3%58.6%
TinyLlamaPublished checkpoint range1.1B55.2-59.2%72.9-73.6%58.8-59.4%
Published larger-model context

GPT-NeoX-20B's published table reports 41.0% ARC-Challenge, 69.4% BoolQ, 71.4% HellaSwag, 77.7% PIQA, and 66.0% WinoGrande. Google's Gemma 2 27B model card reports 71.4%, 84.8%, 86.4%, 83.2%, and 83.7% respectively under its stated task protocols, a simple 81.9% mean. These are scale markers, not a protocol-identical comparison.

Learned-parameter scale
Raw FP16 parameter storage only
Historical language state29.93M1x / ~60 MB
Final-R6 persisted neural state49.32M1.65x / ~99 MB
500M model500M16.7x / ~1 GB
20B model20B~668x / ~40 GB
27B model27B~902x / ~54 GB
32B model32B~1,069x / ~64 GB
70B model70B~2,339x / ~140 GB
Ratios use the historical 29.93M language-state count; the Final-R6 total is shown separately. FP16 sizes are arithmetic storage estimates, not measured runtime memory. Brain's row is a historical profile estimate assembled from its benchmark evidence. The conventional-model figures come from published evaluations. Protocols, checkpoints, prompts, and harnesses are not perfectly identical, so this is a scale comparison, not a publication-grade head-to-head or a claim of universal superiority. Larger-model sources: GPT-NeoX-20B published table and Gemma 2 model card. Earlier small-model references: MobileLLM evaluation table, SmolLM2 model card, and TinyLlama checkpoints.

Evidence ledger

Versioned results and their supporting records

Final-R6 is the accepted architecture. Earlier accepted, measured, and rejected experiments remain part of its history. Each record identifies the question, method, outcome, and limits of the available evidence.

Download the public research brief
September 2026 / FINAL-R6Fixed cortex baseline acceptedaccepted

Build: Final-R6

Question
Which architecture is the current accepted baseline?
Method
Whole-cortex repair and acceptance established the fixed Final-R6 baseline for subsequent training.
Result
Cortex repair is closed. Final-R6 persists 49,324,558 neural scalars within the 50M limit; mutable language state remains 29,930,048 scalars across 54 tensors.
Interpretation
Work has moved into post-cortex learning, recall, conversation, and knowledge integration.
Limitation
Architecture acceptance does not supply a fresh Final-R6 ARC-Easy, PIQA, or WinoGrande score.
Public Final-R6 summary

Operator-reported research state. Detailed acceptance artifacts remain protected; no public run hash is supplied.

September 2026 / FINAL-R6-LEARNINGPost-cortex Brain-native learningin progress

Build: Final-R6

Question
How does accepted Brain state develop while established routes are retained?
Method
Exact Final-R6 training execution, anti-forgetting, route preservation, governed recall, and Learning Center integration.
Result
Post-cortex learning is established. Full training, conversational integration, and governed-recall development are active.
Interpretation
Stable milestones describe the research phase; intermediate training steps are not public capability scores.
Limitation
No completion claim or fresh benchmark score is attached to the ongoing sequence.
Public training-state summary

Training state and private knowledge remain protected.

Next evaluation / FINAL-R6-EVALUATIONFresh three-task benchmarkpending fresh evaluation

Build: Final-R6 after training

Question
What does Final-R6 achieve after the current training sequence?
Method
Fresh ARC-Easy, PIQA, and WinoGrande evaluation following post-cortex training, with build and protocol recorded.
Result
Pending. No Final-R6 scores are published in this update.
Interpretation
Historical approximately 30M scores remain independent of this evaluation.
Limitation
Intermediate experimental scores cannot substitute for the fresh evaluation.
Result pending

A completed evaluation artifact is not yet available.

August 21, 2026 / AUG21-TRAININGEnd-to-end training and exact reloadsuperseded

Build: Historical approximately 30M Brain

Question
Could Brain complete its learning and acceptance cycle?
Method
A fixed 29,930,048-scalar budget, 1,024 optimizer steps, checkpoint reload, whole-Brain acceptance, and retention checks.
Result
29,929,950 scalars changed; 64 / 64 acceptance cases and 106 / 106 retention checks passed.
Interpretation
An accepted historical milestone. Final-R6 is now the architecture baseline.
Limitation
These acceptance counts belong to the August build and are not relabeled as Final-R6 validation.
August benchmark brief

Public summary; private checkpoint contents are excluded.

August 2026 / V33Grounded evidence on 200 fresh ARC questionsmeasured

Build: Historical ARC grounded-evidence route

Question
Can grounded candidate evidence improve the inherited answer?
Method
Frozen candidate-specific evidence, question anchoring, relation checks, no retraining, and an information-identical classical control.
Result
43 / 200 became 92 / 200: +49 correct answers and +24.5 percentage points.
Interpretation
QSA and the classical control tied. The measured gain supports the cognitive architecture.
Limitation
The source labels this cohort ARC without identifying Easy or Challenge. It is not equated with either comparison table.
V33 public record and recorded hash

Recorded SHA-256: 978d35794ae4a19b24f7e842d5ddedff7397dd2f0f1222d8d4e9aaf6ced29f72

Hash retained from the August public brief; underlying evaluation artifacts are not distributed here.

August 2026 / V35Fresh WinoGrande train-holdout gainmeasured

Build: Historical WinoGrande object-state route

Question
Does object-state reasoning improve a fresh holdout?
Method
Frozen public-knowledge fallback and exact object-transition route on 1,024 never-used train-split rows.
Result
523 / 1,024 became 550 / 1,024. The object route answered 26 / 28 resolved rows correctly; actual overrides produced 14 gains and 2 losses.
Interpretation
A measured improvement on the named historical holdout.
Limitation
This is not an official WinoGrande validation score or a protocol-matched comparison with external models.
V35 public benchmark record

Cohort, controls, and recorded hashes are retained in the August brief.

September 2, 2026 / FRONTIER-20260902Correct-candidate evidence frontiermeasured

Build: Pre-Final-R6 / frozen five-task domain

Question
Does the legal evidence pool contain the correct candidate?
Method
17 target-free evidence sources across 2,378 frozen ARC-Challenge, BoolQ, HellaSwag, PIQA, and WinoGrande cases.
Result
2,354 / 2,378 correct candidates present: 98.99% aggregate and 98.14% macro coverage; 24 cases lacked a correct source proposal.
Interpretation
A strong information-availability result that informed subsequent cortex development.
Limitation
Evidence coverage is not final-answer accuracy. ARC-Challenge here is distinct from the historical ARC-Easy comparison.
September 2 research brief

Dated historical summary; it does not describe the current architecture.

September 2, 2026 / V3Candidate-plus-parent unionrejected

Build: Pre-Final-R6 reconstruction and arbitration

Question
How much correct evidence did V3 preserve?
Method
Compare the candidate-plus-parent union with the legal evidence pool on the same frozen domain.
Result
2,101 / 2,378: 88.35% aggregate and 82.63% macro, with a 253-case recoverable-evidence gap. The run was terminated and rejected.
Interpretation
Historically informative. Later cortex work addressed reconstruction, relation, authority, and final selection.
Limitation
The rejected run is not the current Final-R6 baseline or a fresh Final-R6 score.
V3 historical research record

The rejected result remains preserved in its original record.

Research chronology / August to September 2026

From accepted training to Final-R6

The August build established end-to-end learning. The September evidence study informed cortex repair and Final-R6 acceptance. Post-cortex training and governed-recall development are now active.

  1. Aug 20

    Structured procedure layer sealed

    A single fresh 2,120-row blind closed the accepted structured cognition fallback with its own immutable evidence record.

  2. Aug 21

    Brain completed accepted training

    The Brain-owned state completed 1,024 optimizer steps, reloaded exactly, passed 64 / 64 whole-Brain acceptance, and retained 106 / 106 prior behaviors.

  3. Aug 22

    Fixed-parameter benchmark gains replicated

    Fresh ARC, PIQA, HellaSwag, and WinoGrande routes improved without increasing the neural parameter budget or reconnecting the teacher runtime.

  4. Sep 02

    Five-task evidence frontier measured

    The frozen 2,378-row domain reached 98.99% correct-candidate evidence coverage. Rejected V3 preserved an 88.35% union, exposing the reconstruction and arbitration gap at that stage.

  5. September

    Five-task capability training

    Capability training extended the research program across five benchmark families and informed the subsequent cortex investigation.

  6. September

    Whole-cortex repair completed

    Failure isolation and repair addressed reconstruction, relations, authority, and final selection. Cortex repair closed.

  7. September

    Final-R6 accepted

    The fixed cortex baseline was accepted with 49,324,558 persisted neural scalars inside the 50M architecture limit.

  8. September

    Brain-native learning established

    Post-cortex learning and exact Final-R6 training execution were developed under Brain-native authority.

  9. Current

    Training, recall, and route preservation

    Full training, anti-forgetting, governed recall, conversational integration, and Learning Center knowledge integration are active.

  10. Next

    Fresh Final-R6 benchmark

    ARC-Easy, PIQA, and WinoGrande will receive a fresh evaluation after the current training sequence.

  11. Next

    Conversational early access

    A limited outside-testing release is in preparation, with a public build identifier and separately governed learning.

Longer-term evaluation target

The earlier research roadmap proposed at least 90% executable performance on a frozen five-task suite and comparison with 70B+ reference models. These are research targets. Fresh results, equivalent protocols, and matched controls are required before assigning any performance class to Final-R6.

Brain / QELM / QSA

Connected systems, separate authorities

QELM is the language-model research foundation. QSA supplies exact quantum-state execution. Brain owns language, memory, evidence, learning, checkpoint adoption, and the final decision path.

System map

Established now. Strengthened next.

The Final-R6 cortex baseline is accepted. Governed post-cortex learning develops language, recall, and knowledge while anti-forgetting and route-preservation controls protect established behavior.

AreaEstablished capabilityActive frontier
Brain-owned model

Final-R6 accepted; 49,324,558 persisted neural scalars, including 29,930,048 mutable language scalars across 54 tensors

Complete post-cortex training within the 50M persisted-neural-scalar limit

Language ingress

Compositional task, role, relation, constraint, evidence, option, and output binding

Develop conversational continuity, explanation quality, and post-cortex language behavior

Quantum-state work

QSA 0.2 structured execution, branch-state computation, state transport, and matched controls

Prove when QSA adds runtime, representation, or cognitive value beyond an identical classical control

Memory + evidence

Working, episodic, semantic, and procedural memory with provenance, consolidation, and rollback boundaries

Develop governed recall, Learning Center integration, and knowledge use while preserving established routes

Evaluation

Historical benchmark lineage and the September 2 evidence frontier retained with build-specific limits

Fresh Final-R6 ARC-Easy, PIQA, and WinoGrande evaluation after training

Scientific translation

Causal research beyond plausible text

Brain's explicit hypotheses, provenance, procedures, and world states are being developed for scientific relationships where the path to a conclusion matters as much as the conclusion itself.

Example relationship path

  1. Compound
  2. Target
  3. Pathway
  4. Cellular effect
  5. Tissue effect
  6. Phenotype
  7. Intervention outcome

Research targets

  • Drug-target discovery
  • Pathway analysis
  • Multi-omics integration
  • Biomarker discovery
  • Treatment-response modeling
  • Rare-disease hypotheses
  • Protein-function relationships
  • Mechanistic research

These are research directions, not claimed medical discoveries, validated clinical tools, or treatment recommendations.

Evaluation contract

How a Brain result becomes evidence

A finished run is not automatically a capability gain, and a QSA-backed gain is not automatically quantum advantage. The record follows the exact test that was performed.

  1. 01

    Freeze

    Bind the method, runtime, knowledge identities, parameter state, and complete predictions before target access.

  2. 02

    Score

    Open the target vault once, compare against the inherited Brain answer, and record gains, losses, ties, and coverage.

  3. 03

    Control

    Run information-matched classical, dephased, reset, or fallback controls appropriate to the mechanism being tested.

  4. 04

    Protect

    Verify accepted Brain state, protected checkpoints, donor disconnection, and production authority remain unchanged.

  5. 05

    Retain

    Keep positive, neutral, failed, and revoked paths in the same evidence history so a weak route cannot return as a claim.

Protected by design

Private weights, corpora, memory contents, topology, thresholds, credentials, security protocols, and operator controls are not published. The public evidence surface contains results, controls, version identity, boundaries, and artifact hashes without disclosing those internals.

Claims & limitations

Research interpretation

Brain is an experimental cognitive architecture under active development. Benchmark results apply to the stated build and protocol. Evidence coverage is not equivalent to answer accuracy. Parameter-count comparisons do not establish protocol-identical equivalence. QSA participation does not by itself establish quantum advantage. Scientific and biomedical applications are research directions, not clinical capabilities.

Experimental Brain access

Talk to Brain / early access in preparation

A limited conversational release of Final-R6 is being prepared for outside testing. Early participants will help evaluate factual recall, reasoning, conversational continuity, memory behavior, explanation quality, and failure modes.

Research access

Public records and inspectable foundations