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Measured evidence

100M scale matrix

Active parameters, evaluation loss, memory peak, and throughput-ratio results at the approved scale point.

Recorded finding: The scale matrix exposes a concrete engineering checkpoint with explicit dimensions and receipts.

On this page

Currency and next evidence gate

Decision signals

Key metrics and controls

The recorded values, with their controls and scope.

5/5

Passing variants

100 steps; sequence length 768.

25.4%

ERAIS full active share

Active share of non-embedding parameters in this variant.

2.62×

ERAIS full throughput ratio

Relative to the matched dense control in this matrix.

31.6%

ERAIS full RSS reduction

Training peak RSS relative to the matched dense control.

Source-linked visual evidence

What the evidence shows

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

Source-linked chart

Training peak RSS by variant

Peak resident memory for the five passing 100M-scale matrix variants.

Finding: ERAIS full reports the lowest peak RSS in this bounded matrix; the comparison remains tied to its disclosed geometry.

Training peak RSS by variantPeak resident memory for the five passing 100M-scale matrix variants. ERAIS full reports the lowest peak RSS in this bounded matrix; the comparison remains tied to its disclosed geometry.02,0004,0006,000MiBPeak RSSDense controlDense control4,874Dense optimizer controlDense optimizer control3,559Sparse controlSparse control5,120Sparse optimizer controlSparse optimizer control3,508ERAIS fullERAIS full3,331
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Training peak RSS by variant; values in MiB
GroupPeak RSS
Dense control4,874 MiB
Dense optimizer control3,559 MiB
Sparse control5,120 MiB
Sparse optimizer control3,508 MiB
ERAIS full3,331 MiB

Source-linked comparison

Throughput ratio by variant

Each variant's training throughput divided by the dense-control throughput in the same matrix.

Finding: ERAIS full reports 2.62× the dense-control throughput in this specific five-variant matrix.

Throughput ratio by variantEach variant's training throughput divided by the dense-control throughput in the same matrix. ERAIS full reports 2.62× the dense-control throughput in this specific five-variant matrix.0123× denseThroughput ratioDense controlDense control1.00Dense optimizer controlDense optimizer control1.01Sparse controlSparse control0.92Sparse optimizer controlSparse optimizer control0.92ERAIS fullERAIS full2.62
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Throughput ratio by variant; values in × dense
GroupThroughput ratio
Dense control1.00 × dense
Dense optimizer control1.01 × dense
Sparse control0.92 × dense
Sparse optimizer control0.92 × dense
ERAIS full2.62 × dense

Source-linked chart

Active non-embedding share

Minimum active share for each variant's disclosed non-embedding parameter footprint.

Finding: Only ERAIS full reports a materially reduced active share in this matrix; the other variants remain at 100%.

Active non-embedding shareMinimum active share for each variant's disclosed non-embedding parameter footprint. Only ERAIS full reports a materially reduced active share in this matrix; the other variants remain at 100%.050100150%Active shareDense controlDense control100.0Dense optimizer controlDense optimizer control100.0Sparse controlSparse control100.0Sparse optimizer controlSparse optimizer control100.0ERAIS fullERAIS full25.4
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Active non-embedding share; values in %
GroupActive share
Dense control100.0 %
Dense optimizer control100.0 %
Sparse control100.0 %
Sparse optimizer control100.0 %
ERAIS full25.4 %

Method

How to read this result

  1. The matrix compares five variants at scale_100m, 100 steps, and sequence length 768.
  2. Every variant reports pass status and at least 1,700 full-evaluation examples in the approved source rows.
Read the complete evidence method

What this result establishes

A single bounded scale matrix does not prove performance superiority across hardware or workloads.

  • Bounded 100M local scale-matrix aggregate evidence only.
  • Parameter counts are normalized to M across JSON, charts and tables.
  • Full-eval loss movement is a local likelihood-eval signal, not a general model-quality claim.
  • Throughput ratio is from the local gate metric and is not a service-level or benchmark-leadership claim.
  • No production-readiness, mature generation-quality, dense-superiority, unrestricted reproduction or proven-breakthrough claim is made.
  • Raw paths, invocation details, private configuration, source commits, hashes, checkpoints, prompts, outputs, model weights and mechanism internals are not published.

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

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Related evidence

measuredreviewed
Historical
Observed
The approved runs expose measurable resource behavior with source rows and bounded interpretation.
Supports
Public aggregate memory and smoke-loss guardrail curves across the approved experimental scales.
Does not support
These curves do not establish dense-baseline superiority or production performance.
Next decisive evidence
Repeat under a frozen current stack with matched controls before any broader comparison or performance use.

Decision relevance: research · diligence

Review evidence
projectionbounded
Historical
Observed
The outlook turns architecture assumptions into inspectable resource scenarios for planning.
Supports
Projected active share, stored parameters, decode bandwidth, optimizer state, and weight-stream requirements.
Does not support
All values are projections, not measured deployment results, and depend on the published assumptions.
Next decisive evidence
Refresh assumptions from the approved current architecture and keep projections separate from measured results.

Decision relevance: investment · planning

Review evidence