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Measured evidence

Model fracture milestone

Real Qwen3 0.6B fracture, exact K32 engineering reconstruction, and a completed protected four-way trace for material-sparsity alignment.

Recorded finding: All 28 donor layers produced balanced expert assignments, K32 matched five frozen engineering cases exactly, and all 112 protected trace units completed across four isolated roles.

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Currency and next evidence gate

Decision signals

Key metrics and controls

The recorded values, with their controls and scope.

28/28

Donor layers traced

32 balanced experts per layer; 96 neurons each.

5/5

Exact frozen cases

First logits, first-token top-five order, and complete greedy generations at K32.

0.0

Maximum first-logit error

Observed across the five registered engineering cases; broader token-level comparison remains a next gate.

112/112

Protected trace units

4 isolated roles across all 28 layers; no failed or interrupted unit was promoted.

Source-linked visual evidence

What the evidence shows

Open any chart’s data table to inspect the exact values, or download the CSV.

Status matrix

Exact reconstruction checks

Matched and compared case counts for the three frozen K32 engineering-parity checks.

Finding: All three checks matched in all five cases; this is exact observed reconstruction within the frozen set, not broad quality evidence.

Exact reconstruction checksMatched and compared case counts for the three frozen K32 engineering-parity checks. All three checks matched in all five cases; this is exact observed reconstruction within the frozen set, not broad quality evidence.0246casesMatchedComparedFirst-token logitsFirst-token logits55First-token top fiveFirst-token top five55Greedy generationsGreedy generations55
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Exact reconstruction checks; values in cases
GroupMatchedCompared
First-token logits5 cases5 cases
First-token top five5 cases5 cases
Greedy generations5 cases5 cases

Ordered source series

Assignment structure across 28 donor layers

Minimum, median, and maximum difference between balanced activation-derived assignments and contiguous neuron slices.

Finding: Every layer produced a distinct balanced assignment 96.5–97.6% different from contiguous slicing; this establishes non-arbitrary organisation, not semantic superiority.

Assignment structure across 28 donor layersMinimum, median, and maximum difference between balanced activation-derived assignments and contiguous neuron slices. Connecting lines show ordered observations and do not imply unmeasured intermediate results. Every layer produced a distinct balanced assignment 96.5–97.6% different from contiguous slicing; this establishes non-arbitrary organisation, not semantic superiority.050100150% differentAssignment differenceMinimum observed: Assignment difference, 96.5 % differentMedian observed: Assignment difference, 96.9 % differentMaximum observed: Assignment difference, 97.6 % differentMinimum observedMinimum observedMedian observedMedian observedMaximum observedMaximum observed

Connecting strokes aid comparison between published ordered points; they do not represent measurements between those points.

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Assignment structure across 28 donor layers; values in % different
PointAssignment difference
Minimum observed96.5 % different
Median observed96.9 % different
Maximum observed97.6 % different

Progress and control

Native adapter update scope

Trainable and frozen parameter shares in the 671.315M-parameter one-step bootstrap.

Finding: The update covered 577 injected modules while training 1.552% of parameters; it proves local numerical execution, not convergence or generation quality.

Native adapter update scopeTrainable and frozen parameter shares in the 671.315M-parameter one-step bootstrap. The update covered 577 injected modules while training 1.552% of parameters; it proves local numerical execution, not convergence or generation quality.050100150% of parametersTrainable adapterFrozen parametersTrainable adapterTrainable adapter1.552Frozen parametersFrozen parameters98.448
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Native adapter update scope; values in % of parameters
GroupParameter share
Trainable adapter1.552 % of parameters
Frozen parameters98.448 % of parameters

Method

How to read this result

  1. A frozen real-model activation trace covered all 28 feed-forward layers and assigned every source neuron exactly once into equal-width experts.
  2. The complete K32 expert set was reconstructed and compared with the donor on five pre-registered engineering cases; a separate native checkpoint then completed one bounded adapter step.
  3. A separate protected trace completed all 112 layer-role units across train, calibration, validation, and final-holdout roles, with distinct split identities and no fit access to the final holdout.
  4. The bounded alignment execution path is implemented and its protocol is executable; this pack does not present a complete real aligned checkpoint or terminal alignment receipt.
  5. The machine-readable source JSON retains all 28 layer rows; the visual chart presents their minimum, median, and maximum for legibility.
Read the complete evidence method

What this result establishes

The bounded alignment path is executable, but no complete aligned checkpoint is promoted; K8/K16/K24 quality, savings, broader generalisation, and production readiness remain unevaluated.

  • Exact parity is limited to five frozen engineering cases at complete K32 reconstruction.
  • The activation curriculum was a small synthetic engineering set and does not establish semantic or routing superiority.
  • The adapter result is one finite update, not convergence, benchmark quality, or sustained training evidence.
  • The protected four-way trace is complete and the bounded alignment path is executable, but no complete real 28-layer aligned checkpoint or terminal alignment receipt is promoted here.
  • K8, K16, K24, and adaptive-K quality, latency, throughput, memory, and energy remain unevaluated on this converted model.
  • No production-readiness, cross-model portability, continual-learning, or capability-marketplace claim is supported by this pack.

Inspection and reuse

Downloads and provenance

Source data

Machine-readable summary

The recorded JSON artifact is staged from the governed public evidence pack during the build. Its currency notice determines whether it may be read as current.

Open source JSON

Provenance

Build and evidence receipt

Use the public build receipt to compare the deployed site source, evidence digest, claim posture, and inference release state.

Open build receipt

Continue reviewing

Related evidence

measuredreviewed
Refresh required
Observed
Small controlled probes provide measurement signals suitable for engineering decisions and follow-up experiments.
Supports
Step counts, throughput ranges, parameter footprint, and pair-work reduction from bounded probes.
Does not support
Probe-scale behavior is not a substitute for matched end-to-end production benchmarks.
Next decisive evidence
Regenerate from the repaired exact artifact identity and close or retain the phase-41 contract-discovery failure.

Decision relevance: research · engineering

Review evidence
controlreviewed
Superseded
Observed
Critical system surfaces are governed by explicit pass/fail controls rather than narrative assurance alone.
Supports
Configuration validation, critical gate coverage, phase-control checks, and API observability posture.
Does not support
Control coverage describes engineering discipline; it does not independently prove model capability.
Next decisive evidence
Rerun and close—or retain—the three failing raw-discovery validations, then publish an exact-SHA quality-gate pack with executed assembly CI.

Decision relevance: governance · diligence

Review evidence