The audit · in full

Two lineages. Three values for ν. One stabilization plan.

DFT is a young program, and the corpus contains real disagreements on load-bearing claims. This page is the full accounting: the lineage map, the two within-chapter formal instabilities, the four normalization paths, and the three-stream stabilization plan we run against them. Auditing in public is the operating posture of the lab.

The map

01

THE MAP

Two lineages and a validation-outlier strand.

Across the corpus, two lineages with non-overlapping numerical predictions on load-bearing claims have accumulated independently. A third strand, the empirical-validation chapter, sits outside both lineages and reports a third value for the headline critical exponent without engaging either.

Quantity Lineage A — Critical universality Lineage B — Unified / thermodynamic Cluster C — Validation outlier
Critical exponent ν0.71 ± 0.020.63 ± 0.040.85 ± 0.04
Mass-robustness formExponential R = R₀ + R₁ exp(−κm); displayed power-law in the synthesis chapter's Law IPower-law m−2; m−βLipschitz / inverse-linear (L / mgap)
Causal speedv_c = 0.82c_eff = √(Γ/τ) = 0.42Not addressed
Universality classO(k) × Diff(M) × ℤa, d_c=4"3D Ising"Not stated
Pure sourcesempirical-signatures chapter · synthesis chapter · universal-critical-phenomena paperaxiomatic-framework, thermodynamics, and unified-framework papersempirical-validation chapter
Bridgesenergy-based-learning & structural-analogies papers; the geometric-foundations paper (pre-bifurcation baseline)

Phase 0 cross-corpus audit, drawing on the empirical-signatures, synthesis, and empirical-validation chapters and the axiomatic-framework, universal-critical-phenomena, unified-framework, and geometric-foundations papers.

Cluster A versus Cluster C: gap of ~3.2σ by standard condensed-matter criteria. This is real disagreement, not noise. Neither lineage cites the other across the eight publications surveyed in Phase 0.

02

LOCAL INSTABILITIES

Two within-chapter consistency failures.

Synthesis chapter, Law I — formula-vs-caption mismatch

Law I, the Mass-Robustness Law of Lineage A, presents two functionally inequivalent relationships in the same numbered statement. The displayed formula in the synthesis chapter reads R ∼ M_eff^(-β), a power-law in the effective mass. The supporting caption two lines later describes G = G₀ + G₁ exp(-κm) with κ = 8.27 ± 0.42, an exponential decay sourced from the empirical-signatures chapter.

The disciplinary recommendation (philosophy paper §VI.5) is to attempt Reading 5.C, the two observables R (robustness) and G (correlation function) are related by R ∼ ∫ G(r) dr, making the apparent inconsistency a missing derivation rather than a contradiction. State the relationship explicitly and the law becomes formally stable.

Empirical-validation chapter — abstract-vs-body label scramble

The empirical-validation chapter's abstract reports characteristic exponents α = 0.72 ± 0.03 and β = 0.92 ± 0.04. The body reports α_N = 0.142 ± 0.003, α_D = 0.283 ± 0.003, β = 0.719 ± 0.006. The body's β = 0.719 matches the abstract's α = 0.72 to within rounding, suggesting the labels are swapped; the abstract's β = 0.92 does not appear in the body's tables.

Editorial resolution: align the abstract with the body, or re-present the body's labels to match the abstract. The chapter's empirical content is not affected; only the presentation.

03

FOUR-PATH NORMALIZATION

What stabilization would consist of.

The philosophy paper specifies four paths under which the corpus could move from its current branching state to one of three stable structural verdicts. The fourth path is the one the current evidence most directly supports.

Path 1 — Reconciliation

Show that the three exponent clusters measure different quantities in different regimes; that the five mass-robustness functional forms describe regimes of one law; that the seven finite-speed mechanisms are estimators of the same underlying propagation structure.

Verdict: one theory

Path 2 — Clean split

Issue an explicit programmatic statement designating the lineages as named theories with separate citation networks, naming conventions, and falsification conditions specific to each.

Verdict: two theories

Path 3 — Hierarchization

Designate one lineage as canonical and present the others as superseded, complementary, or special cases. Requires the canonical-selection call to be made.

Verdict: one canonical / others derived

04

STABILIZATION WORKSTREAMS

Three workstreams. Different timescales.

Days

Stream 1 — Immediate editorial work

  • Resolve the synthesis chapter's Law I formula-vs-caption mismatch.
  • Align the empirical-validation chapter's abstract with its body for scaling-law labels.

Within unilateral capacity of the corpus's author. Does not require new research.

Weeks to months

Stream 2 — Canonical designation and regime mapping

  • Designate canonical operational definitions (mass gap, free-energy reading, finite-speed mechanism, universality class).
  • Specify regime maps for the multi-form claims.
  • Distinguish PDE-propagation and Pearl–Woodward intervention senses of "causation" in chapter language.

Coordination across chapters and papers. No new theoretical or empirical work.

Months to a year

Stream 3 — Theoretical and empirical re-grounding

  • Compute the RG fixed point and report symmetry structure, anomalous dimensions, universal exponents.
  • Run model comparison on the empirical-validation chapter's 25,000-model dataset using AIC, BIC, and cross-validated likelihood.
  • Pursue external replication for at least one cardinal empirical result.
  • Reconcile or hierarchize the three ν clusters.

Load-bearing scientific commitments. Convert the branching reading into a disciplined unified or hierarchized reading.

Read the full philosophy paper.

The full audit lives in the philosophy paper. It is affirmative when stating the theory, disciplinary when auditing it, and every claim is anchored to a chapter, paper, line number, or close-read finding identifier.

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