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exp013 dose curve complete: lambda=1 is the operating point (-8.3% blob gauge at +0.4% common cost, in-bound; saturation between 1 and 2)
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exp013_blob_flow β€” THE CONDITIONING HYPOTHESIS CONFIRMED (CANDIDATE s0; s1 running)

Hypothesis (Phil, 2026-07-18). "Blob likely will be less effective for eps than it will be for flow matching." Mechanism: eps-prediction recovers structure through x0Μ‚ = (x_t βˆ’ √(1βˆ’αΎ±)Β·Ξ΅Μ‚)/√ᾱ β€” ill-conditioned at high noise (vanishing √ᾱ) exactly where blob supervision applies; rectified flow recovers x0Μ‚ = x_t βˆ’ σ·vΜ‚ EXACTLY and linearly at every sigma.

Design. Identical coupling to exp012 (foreground-weighted LP-x0, HIGH band, Ξ»=0.5), identical fused data + blob targets, identical multiband beds β€” only the substrate changes: base_lune (flow objective, its judged-best nl77 conditioning). Arms: frozen | uniform-mb3 | blob-mb3; in-bed gauges on all arms.

Results (results.json):

arm common flow-MSE HIGH-band blob gauge
frozen 0.62989 0.18447
uniform mb3 0.57249 (βˆ’9.1%) 0.12987
blob mb3 0.57379 0.12220
prereg outcome
P1: blob-gauge move β‰₯5Γ— the eps reference (+0.03%) HIT β€” βˆ’5.9% relative, ~200Γ—
P2 common gauge undegraded (<0.5%) HIT (+0.23%)
P3 toggle bit-exact HIT

Verdict (candidate, s0). The SAME supervision that is 2-seed inert on the eps substrate (exp012) bites hard on the flow substrate β€” the conditioning of the x0 recovery is the controlling variable, exactly as hypothesized. Consequences: (1) blob/structural supervision belongs on FLOW-objective trunks (or v-pred); (2) exp012 is reframed as this pair's conditioning control; (3) the undertrained lune trunk pays adapters βˆ’9.1% (largest adapter effect measured in the line β€” headroom scales inversely with trunk training, consistent with the "undertrained exemplar" framing).

Caveats. s0 (s1 running); one Ξ»; lune β‰  core substrate (the flow-vs-eps contrast rides on different trunks β€” a v-pred core arm is the clean follow-up); blob gauge scale differs across objectives (relative moves are the comparison, stated as such).


SEED-1 (2026-07-18, results_s1.json) β€” PROMOTED: 2-SEED CONFIRMED

s1 relative blob-gauge move βˆ’3.7% (s0 βˆ’5.9%) β€” both seeds pass the preregistered 5Γ— bar by ~125–200Γ— the eps reference; common gauge clean both seeds. THE CONDITIONING LAW (2-seed): structural/blob supervision pays where x0 recovery is linear (flow: x0 = x_t βˆ’ Οƒv) and is inert where it divides by vanishing √ᾱ (eps at high noise). Scope: lune flow trunk vs core eps trunk (different trunks β€” v-pred same-trunk arm remains the sharpest follow-up); 2 training seeds, shared cache.


DOSE-RESPONSE POINT (2026-07-19, Ξ»=2.0, results_lambda2.json)

Monotone: Ξ»=0.5 β†’ βˆ’5.9% blob gauge at ~0% common cost; Ξ»=2.0 β†’ βˆ’8.4% at +0.9% common cost (now past the 0.5% P2 bound). The coupling-strength trade surface is real and mapped at two points; Ξ»β‰ˆ1 interpolation and pure-band-phase training are the open refinements. (Ops note: this arm reused the s0 results filename on-pod β€” the shipped s0 file is canonical; the config's lambda field disambiguates.)


THE DOSE CURVE COMPLETE (2026-07-19, results_lambda1.json)

Ξ» blob-gauge move common-gauge cost within 0.5% bound
0.5 βˆ’5.9% ~+0.2% yes
1.0 βˆ’8.3% +0.4% yes β€” the operating point
2.0 βˆ’8.4% +0.9% no
Monotone with saturation between Ξ»=1 and 2: Ξ»β‰ˆ1 captures essentially the
full blob-gauge gain inside the preregistered common-gauge tolerance. All
single-seed dose points on the 2-seed-confirmed conditioning law's flow
substrate.