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Publication history: 2026-06-23

Original publication entries retain their wording and recorded status. Follow the current research history for later findings and revisions.

41 / 56 days

23 Jun 2026

19 updates
  1. Seam & QGEO
    Bird's-eye synthesis

    Summary

    Two new structural patterns — v383 the universal spectral-gap principle and v384 the residual is certification, not construction

    Details

    • v383 (DYNAMICS.UNIVERSAL.01) — the universal spectral-gap / Perron–Frobenius principle. A fresh bird's-eye pass found that every TFPT sector is the same structural object: a gapped operator with a unique leading attractor (the physics) and a spectral gap (the reason there is no free parameter). v303 named this only for F_{\mathrm{transfer}}; this module extends it to the sectors made parameter-free after it. [E]three gaps are computed — the flavor transfer \{1,(2/3)^6,(1/3)^6\} with gap 6\ln(3/2) (v56/v82); the affine-E_8 adjacency with Perron eigenvalue 2 (Kac marks) and subleading 2\cos(\pi/5)=\varphi, gap 2-\varphi=1/\varphi^2 (v312/v313); the decoupling margin \Delta_{\mathrm{eff}}\approx1.648 (v76/v337). [E]the two number-field facets (v314): golden \varphi\in\mathbb Q(\sqrt5) (carrier-5, static) and (2/3)^6\in\mathbb Q (family-3, dynamic) are the prime-5 and prime-3 facets of the order-30 Coxeter clock 30=2{\cdot}3{\cdot}5=h(E_8). [C]the other sectors are the same structure — gravity (\delta S{=}0 equilibrium, v358/v359), the QG measure (Gaussian saddle, v365), the boundary QFT (holomorphic c{=}8 RG fixed point, v157/v158), the all-order S-matrix (adiabatic limit, v381), recovery (Petz fixed point, v221), \tau{=}i (v333). [C]the meta-theorem: gapped \Rightarrow unique attractor \Rightarrow parameter-free, theory-wide. Cited in origin_theory; a synthesis (no new number), Python-only.
    • v384 (RESIDUAL.CERTIFICATION.01) — the residual is certification, not construction. After v369/v381/v382 the kind of every open item has shifted: there is no open TFPT physics mechanism left. A ledger-CI audit classifies every residual into exactly three external kinds: [E](A) external math proof (SEAM.EQUIV.01 continuum existence = the cited MMST/Adamo theorem v336; ALPHA.QUILLEN.EXACT.01 v382; QG.AMB.01 the constructive measure, a [C]redundancy v369), [E](B) theorem-forbidden (v_{\mathrm{geo}}, the No-Unit theorem v153/v364), [E](C) external physics (F_{\mathrm{transfer}}, v371–v374, firewalled v187). The two load-bearing facts are verified (No-Unit dimensionlessness; the gap-decoupling margin 1.648>0), and the count of open internal TFPT mechanisms is zero. [C]convergence: the only hard things left are theorems and external physics, not missing dynamics. Cited in tfpt_research_contracts; an audit (no new number), Python-only.
  2. EM fixed point
    External-review closure
    The two genuine residual targets named — v381 the all-order Epstein–Glaser/BRST contract for S_{\mathrm{pert}}, and v382 the Quillen determinant-line variation as a tracked target

    Summary

    The two genuine residual targets named — v381 the all-order Epstein–Glaser/BRST contract for S_{\mathrm{pert}}, and v382 the Quillen determinant-line variation as a tracked target

    Details

    • v381 (QFT4D.EG.ALLORDER.01) — the all-order 4D perturbative-QFT closing statement. A mathematical-physics review of the QFT/TOE layers identified exactly one genuinely new, buildable item: the all-order Epstein–Glaser/BRST contract for the perturbative 4D S-matrix S_{\mathrm{pert}} (the previous documents had the S_{\mathrm{pert}} skeleton and one-loop, v269/v271/v273/v278, but no named all-order claim). This module types the standard causal-perturbation-theory closure for the TFPT finite interaction class — it does not build a path integral. [E]power-counting: every gauge+matter vertex (Yang–Mills + Dirac–Yukawa + Higgs + ghost) is a mass-dimension-4 marginal operator, so the EG singular order \omega\le4 and the counterterm space is finite at every order; [E]BRST nilpotency s^2{=}0 verified exactly via the Jacobi identity for su(2) and su(3) (the carrier weak+colour content); [E]the seam gap \Delta=6\log\tfrac32>0 (v302) gives the IR-safe adiabatic limit. [C]the two heavy legs are imported rigorous theorems — all-order T_n existence by causal factorisation (Epstein–Glaser 1973) and all-order BRST invariance (Piguet–Sorella / Kugo–Ojima) — applied to the TFPT class. Matter+gauge only: the R^2/Weyl^2 gravity sub-sector is the entire-form-factor resummation (v304/v370/v380), and S_{\mathrm{pert}} is not the ambient measure QG.AMB.01 (a [C]redundancy, v369). NET [C], prerequisites [E]; not [E]and not a path integral. Cited in tfpt_5_redteam and tfpt_2; Python-only.
    • v382 (ALPHA.QUILLEN.EXACT.01) — the Quillen determinant-line variation, named as a target. Per the same review, the “why this F_{U(1)} functional” obligation (previously tracked only as EM.WARD.01's residual, v341/v342) is elevated to its own citable target: \delta_\tau(\log\det_\zeta\Delta_{U(1)}+8b_1\cthree^6\log\varphi_{\mathrm{seam}})=0 on the determinant line over the \mu_4 seam moduli. [E]the Quillen split holds at the \ainv{=}137.0359992 root with every coefficient a named atom (index 8b_1, heat-kernel \cthree^{3,6}, discriminant q(D_5){+}q(A_3){=}2); [E]the value stays closed (v3); [O]the from-first-principles exactness proof is the target. [C]it is a face of SEAM.EQUIV.01 (v336) — the seam U(1) determinant line lives on the same holomorphic net — so it adds no second independent gate; it makes the existing residual trackable. No new number (reuses the Wolfram-mirrored v341 identities). Cited in tfpt_1_architecture_e8; Python-only.
  3. Gravity & cosmology
    Track 2 of the forward plan v2 — the AMBIENT REDUNDANCY statement (v369)
    The holographic route to Gravity-complete that sidesteps building the general Euclidean QG measure

    Summary

    The holographic route to Gravity-complete that sidesteps building the general Euclidean QG measure

    Details

    • v369 (QGAMB.REDUNDANCY.01) — Track 2 (forward plan v2). Instead of constructing the non-perturbative ambient measure (the conformal-factor swamp, v332/v334), assemble the established discriminators that prove the ambient sector carries no physical degrees of freedom relative to the holomorphic boundary algebra, so the QG measure (gate C7/QG.AMB.01) is a non-fundamental certification object (like a coordinate choice in GR), not missing dynamics. [E]holomorphy \Rightarrow \mathrm{DHR}((E_8)_1)=\mathrm{Vec}: \#primaries =|\det\mathrm{Cartan}|=1 for E_8 vs 4 for SO(16) \Rightarrow no nontrivial superselection charge a bulk could carry invisibly; [E]no torus ground-state degeneracy (|\det K|=1); [E]finite Petz recovery rate (2/3)^6 (v221); [E]the gap-decoupling margin \Delta_{\mathrm{eff}}=6\log\tfrac32-\tfrac{31}{4\pi^2}\approx1.648>0 (v76/v337). [C]with the Bisognano–Wichmann reconstruction map (v258/v309/v323) the redundancy statement \mathcal O_{\mathrm{phys}}^{\mathrm{bulk}}/\mathrm{Diff}\cong\mathcal A_\Sigma^{\mu_4} is well-posed. [O]residual: the two consumed premises — SEAM.EQUIV.01 (the S3 lattice input, v366) and the BW intrinsicality of the raw collar (v329); it does not construct QG.AMB.01 but provides the alternative (holographic redundancy) route: Gravity-complete = Boundary-complete + Ambient-redundancy. Cited in tfpt_research_contracts; Python-only.
  4. Seam & QGEO
    Status propagation
    The v365–v380 + FORM.SEAM.MMST.01 status carried into the remaining papers, the README and the Zenodo description

    Summary

    The v365–v380 + FORM.SEAM.MMST.01 status carried into the remaining papers, the README and the Zenodo description

    Details

    • Deep-sync of the post-S3 status. The canonical surfaces (tfpt_status, introduction) were already current; this pass propagated the same honest wording into origin_theory, tfpt_1–tfpt_5, tfpt_research_contracts, the root README.md, the Zenodo description and website/lib/papers.ts: SEAM.EQUIV.01 is closed modulo a cited theorem (lattice v367/v368 + the S_3 stack v376–v379 + Lean FORM.SEAM.MMST.01; residual [O]= the cited MMST/OS existence only); QG.AMB.01 is a [C]redundancy (v369/v379), a certification object not missing dynamics; perturbative graviton unitarity is established (the Stelle ghost is a Seeley–DeWitt truncation artefact, v304/v370/v380); and the frontier transfers are typed runnable solvers with kill tests (v371–v374) + the observatory CI (v375). No new claim — a wording propagation so every surface matches the ledger; AUDIT OK.
  5. Seam & QGEO
    v380 — the KMS Entire Hessian
    The Stelle ghost is EXACTLY the Seeley–DeWitt truncation, and resummation pushes it to infinity

    Summary

    The Stelle ghost is EXACTLY the Seeley–DeWitt truncation, and resummation pushes it to infinity

    Details

    • v380 (GRAV.KMS.HESSIAN.01). Upgrades v304/v370 from the assumption “the resummed graviton form factor is entire” to a derived statement. [E]the seam KMS cutoff f(u){=}e^{-u} (v259) gives the dressed spin-2 propagator e^{-p^2/M^2}/p^2 = 1/(p^2 a) with a(u){=}e^u entire and nowhere zero (only the p^2{=}0 pole). [E]each finite Seeley–DeWitt truncation is a Taylor partial sum of a and carries a Stelle-ghost zero (T_1{=}1{+}u\to u{=}-1; T_2\to-1{\pm}i); the entire a has none. [E]the modulus of the nearest truncation-zero grows monotonically with the order (1,1.41,\dots,3.07 for n{=}1..8) \to\infty — the ghost decouples, “entire” = “do not truncate”. [C]\Rightarrow perturbative graviton unitarity; [O]the exact off-shell curved-space Hessian identification is the cited heat-kernel resummation, perturbative-only. Cited in tfpt_5_redteam (Target F); Python.
  6. Seam & QGEO
    Lean: the S3 continuum leg formalised as “closed modulo a cited theorem” — FORM.SEAM.MMST.01

    Details

    • FORM.SEAM.MMST.01 — Lean 4 formalisation. The S3 continuum leg is now machine-formalised in a new module (SeamScalingLimit.lean), lake build OK and #print axioms clean, in the audit-contract style of SeamEquivChain.lean. The MMST applicability hypotheses for the seam collar are provable by kernel decide (no axioms): D = 16, \operatorname{rank} = c = 8, the range 8 \le 8 \le 16, c_- = 8 \neq 0, and \det K = 1 vs SO(16)'s 4. The MMST scaling-limit theorem (CMP 2022) and the Adamo–Moriwaki–Tanimoto OS reconstruction (2024) are named cited axioms; the conclusion (E_8)_1 follows by a well-typed composition whose residual (#print axioms) is exactly those two published theorems plus the carrier gap — no hidden assumption, no sorry. Mirrors the S3 closure stack v376–v379; so SEAM.EQUIV.01 is now “closed modulo a cited theorem”, the honest formalisation ceiling. Cited in tfpt_research_contracts; lean_manifest refreshed.
  7. Seam & QGEO
    S3 closure stack — the target of the seam scaling limit pinned at EVERY computable level
    Central charge c{=}8 from the lattice (v376), the (E_8)_1 character (v377), the genus-1 torus count =1 (v378), and reflection positivity (v379); only the abstract continuum existence (cited MMST) stays external

    Summary

    Central charge c{=}8 from the lattice (v376), the (E_8)_1 character (v377), the genus-1 torus count =1 (v378), and reflection positivity (v379); only the abstract continuum existence (cited MMST) stays external

    Details

    • v376 (SEAM.S3.CENTRALCHARGE.01). The Calabrese–Cardy finite-size entanglement-entropy scaling of the critical free-fermion content gives c=1.0000 per complex mode (Peschel correlation-matrix EE; the L{=}4m{+}2 sizes avoid the half-filling zero-mode), so the 16-Majorana (=8 complex) collar has c=8=\gcar{+}\Nfam, chiral (c_-{=}8, v367/v368). Numerical c{=}8 from the lattice. Python (numpy).
    • v377 (SEAM.S3.E8CHARACTER.01). The exact affine character \chi = E_4/\eta^8 = q^{-1/3}(1 + 248q + 4124q^2 + \dots) gives c = 8 and 248 level-1 currents (one primary); the \mu_4/GSO promotion 248 = 240 + 8 = 120 + 128 (240 = 16{\cdot}5{\cdot}3) pins (E_8)_1 over the same-c rival SO(16)_1 (120 currents, 4 primaries). Python (sympy q-series).
    • v378 (SEAM.S3.MODULAR.01). The genus-1 discriminator: KLM condensation \mu(\text{carrier}){=}16\to\mu(E_8){=}16/4^2{=}1, |\det\mathrm{Cartan}(E_8)|{=}1 vs D_8{=}4, and the single character's modular T-eigenvalue e^{-2\pi i/3} give torus ground-state degeneracy 1 (holomorphic =(E_8)_1) — the “hard part” v344 isolated. Python (sympy).
    • v379 (SEAM.S3.RP.01). Reflection positivity (the OS axiom) of the explicit gapped collar: the positive spectral measure makes the Hankel/reflection Gram matrix PSD (a ghost mode breaks it). With c{=}8 + (E_8)_1 in hand, the OS inputs are complete and C7/QG.AMB.01 is then discharged by the redundancy theorem v369. Python (numpy).
    • Net: S3 is the master key — on the explicit lattice model the target net (E_8)_1 is pinned exactly (central charge, character, genus-1 count, RP); the only remaining residual is the abstract continuum existence of the scaling limit (the cited MMST theorem v336), which lives outside the computational suite. Cited in tfpt_research_contracts.
  8. Infrastructure
    Track 4 — the prediction OBSERVATORY
    A status-typed CI over the frozen prediction registry that makes the falsifiability surface machine-checkable, with a live data scorecard (v375)

    Summary

    A status-typed CI over the frozen prediction registry that makes the falsifiability surface machine-checkable, with a live data scorecard (v375)

    Details

    • v375 (OBSERVATORY.REGISTRY.01). A CI over freeze_file.csv: [E]every prediction carries a kill criterion (falsifiability complete, no orphan claims); [E]the headline values re-derive from \{\phiz\} (\sin^2\theta_{12}{=}1/3{-}\phiz/2, \sin^2\theta_{13}{=}\phiz e^{-5/6}, \beta_{\mathrm{rad}}{=}\phiz/(4\pi)); [C]a live scorecard records \theta_{12} vs the JUNO first run (0.28\sigma, compatible), \theta_{13} vs NuFIT 6.0 NO (2.0\sigma, the flagged most-tensioned core prediction), \beta_{\mathrm{rad}} vs ACT DR6 (0.37\sigma, a hint), r<0.036 (compatible). Tooling that makes the closed pieces usable and the open ones honestly fenced; no new physics. Cited in tfpt_5_redteam; Python (stdlib).
  9. Seam & QGEO
    Track 3 — the F_{\mathrm{transfer}} functor promoted from contracts to TYPED runnable solvers with kill tests
    Koide source\topole (v371), \eta_B Boltzmann (v372), axion finite-T relic (v373), m_p/m_e uncertainty budget (v374)

    Summary

    Koide source\topole (v371), \eta_B Boltzmann (v372), axion finite-T relic (v373), m_p/m_e uncertainty budget (v374)

    Details

    • v371 (FR.POLE.SOLVE.01). A clean negative: standard QED/EW running cannot be the Koide source\topole transfer (it pushes Q above 2/3; the required \epsilon is negative while QED's is positive), so the transfer is the non-QED 53/54 operator / (2/3)^6 Moebius generator (v183/v82). [C], plain running excluded as the kill. Python (numpy+scipy).
    • v372 (FR.BOLTZMANN.SOLVE.01). The integrated Buchmueller–Di Bari–Pluemacher Boltzmann ODE at the TFPT-frozen M_1{=}M_{\mathrm{scal}}(\phiz)^2/A_\Lambda (v212) gives \eta_B within a factor {\sim}1.1 of 6.1{\times}10^{-10} with no M_R dial; replaces the v326 toy washout. [C]/[X].
    • v373 (FR.RELIC.SOLVE.01). The finite-T axion misalignment ODE decides the branch: the frozen spine angle 3\pi/5 gives \Omega_a h^2{\sim}0.12 (in [0.08,0.16], lands on \Omega_{\mathrm{DM}} untuned) while the hilltop 170^\circ over-produces ({\sim}5.4\times); replaces the v326 toy. [C]/[X] (lattice \chi(T) input).
    • v374 (FR.QCD.BUDGET.01). The m_p/m_e uncertainty budget: with b_3{=}-7 [E]and the two declared externals (\alpha_s(M_Z), C_p, {\sim}5.3\% each), the central {\sim}1824 (v262) carries a propagated {\pm}7.5\% band [\sim1690,\sim1960] CONTAINING 1836.15; lattice tightening is the kill. The falsifiability companion to v262; [C].
  10. Seam & QGEO
    Track 1 — the S3 input made CONCRETE
    An explicit gapped chiral-Majorana (p{+}ip) lattice model with numerical Chern |C|{=}1 realises the c_-{=}8 edge (v367), and a strip shows the chiral edge exists by anomaly inflow (v368)

    Summary

    An explicit gapped chiral-Majorana (p{+}ip) lattice model with numerical Chern |C|{=}1 realises the c_-{=}8 edge (v367), and a strip shows the chiral edge exists by anomaly inflow (v368)

    Details

    • v367 (SEAM.S3.LATTICE.01) — Track 1. The abstract S3 residual of v356/v366 (“the collar realised as a genuine lattice chiral free-fermion invertible phase”) is turned into a RUNNABLE model. [E]the p{+}ip Bloch model is gapped at M{=}1 with a numerically computed Fukui–Hatsugai–Suzuki Chern number |C|{=}1 (C{=}0 trivially at M{=}3); [E] N_{\mathrm{Maj}}{=}\dim S^+{=}16 copies give c_-{=}16/2{=}8{=}\gcar{+}\Nfam, with the edge K-matrix SO(16)_1 (\det 4) \to(E_8)_1 (\det 1) by the order-4 \mu_4 clock (v351/v369). [C]the \mu_4 condensation (v154/v351); [O]the continuum scaling-limit existence (MMST, v336) stays open. Cited in tfpt_research_contracts; Python (numpy + sympy).
    • v368 (SEAM.S3.INFLOW.01) — Track 1. The bulk-edge / anomaly-inflow leg (S4) made concrete on the v367 model: [E]a finite strip has an edge-localised in-gap chiral branch (\min_{k_x}|E|\sim0) in the topological phase and a clean gap in the trivial phase (neg control); [E] bulk-edge correspondence gives one chiral Majorana per edge (c_-{=}8). [C]so by anomaly inflow the chiral edge EXISTS as a consequence of the invertible bulk, discharging the v336/v351 “does the edge exist?” residual on the lattice. [O]the continuum scaling limit stays open. Cited in tfpt_research_contracts; Python (numpy).
  11. Gravity & cosmology
    Track 2 — perturbative graviton unitarity sector-by-sector
    The Barnes–Rivers spin decomposition localises the Stelle ghost in the spin-2 sector, cured by the entire KMS form factor; the spin-0 mode by the GHP contour (v370)

    Summary

    The Barnes–Rivers spin decomposition localises the Stelle ghost in the spin-2 sector, cured by the entire KMS form factor; the spin-0 mode by the GHP contour (v370)

    Details

    • v370 (GRAV.SPIN2.UNITARITY.01) — Track 2. Extends v304 (the scalar 1/(p^2(p^2{+}M^2)) pole algebra) to the actual tensor spin structure. [E]the Barnes–Rivers projectors are complete (\operatorname{tr}P_2{=}(d{-}2)(d{+}1)/2, \operatorname{tr}P_1{=}d{-}1, \operatorname{tr}P_{0s}{=}\operatorname{tr}P_{0w}{=}1 sum to d(d{+}1)/2; d{=}4 split 5{+}3{+}1{+}1{=}10), the EH propagator is P_2/p^2-\tfrac1{d-2}P_{0s}/p^2, and the Stelle ghost is a spin-2 state. [E]the entire KMS form factor e^{p^2/M^2} (v304/v259) makes the spin-2 sector ghost-free; [C]the wrong-sign spin-0 conformal mode (v332) is cured separately by the GHP contour (v334). [C]so the full perturbative graviton is ghost-free sector-by-sector (conditional on v304's entire-analyticity assumption). [O]residual: perturbative-only + the open analyticity assumption; not the non-perturbative measure. [O]DECLINE: \operatorname{tr}P_2{=}5 is dimension counting, not \gcar (v354/v355). Cited in tfpt_5_redteam (Target F); Python-only.
  12. Seam & QGEO
    Directions 3 & 7 — the two hard functional-analysis residuals ADVANCED
    The QG measure as one-loop fluctuations around the parameter-free saddle (v365), and the seam collar verified IN MMST's free-fermion class so the scaling limit is (E_8)_1 (v366)

    Summary

    The QG measure as one-loop fluctuations around the parameter-free saddle (v365), and the seam collar verified IN MMST's free-fermion class so the scaling limit is (E_8)_1 (v366)

    Details

    • v365 (QGAMB.SADDLE.01) — Direction 3. With the parameter-free saddle (v358/v359) the QG measure (gate C7/QG.AMB.01) organises as a one-loop Gaussian fluctuation determinant. [E]the fluctuation stiffness is 1/\cthree=8\pi (no free dial, so the one-loop problem is now well-posed); [E]the fluctuation operator is gapped M\ge\Delta_{\mathrm{eff}}=6\log\tfrac32-\tfrac{31}{4\pi^2}\approx1.648>0 (v76/v337) \Rightarrow mode-by-mode convergence, finite model log-det \operatorname{Tr}'\log M=6\log\tfrac92; [C]the conformal mode converges on the GHP contour (v334); [E]the admissible projective limit exists (\chi=729/665, v330) with 0 new dials (v364). [O]residual: the full non-perturbative projective limit on the ambient sector. Sharpens C7 from “diffuse full QG” to a one-loop Gaussian problem around the parameter-free saddle; does not close it. Cited in tfpt_research_contracts; Python-only.
    • v366 (SEAM.MMST.INCLASS.01) — Direction 7. The seam collar is verified IN MMST's free-lattice-fermion scaling-limit class hypothesis-by-hypothesis: [E]D{=}\dim S^+{=}16 Majoranas, c{=}\gcar{+}\Nfam{=}8, \operatorname{rank}E_8{=}8 so \operatorname{rank}\le c\le D is 8\le8\le16 (in range); [E]gapped (\Delta{=}6\log\tfrac32{>}0, derived v302); [C]quasi-free CAR class (v155/v160); [E]chiral (c_-{=}D/2{=}8\neq0). [C]the MMST scaling-limit theorem then applies, and [E]the order-4 \mu_4 clock pins the target to (E_8)_1 (\det K{=}1 vs SO(16) \det K{=}4, v351). [O]residual: the single S3 input (the collar as a genuine lattice chiral invertible phase, the seam one-sidedness, v297/v356). Reduces the continuum side of SEAM.EQUIV.01 to one named input; ADVANCES, does not close. Cited in tfpt_research_contracts; Python-only.
  13. P2 & carrier
    Consistency pass
    The parameter-free full covariant Einstein equation (v358/v359) propagated across ALL stale paper and website surfaces; new v359 keybox; homepage gravity animation

    Summary

    The parameter-free full covariant Einstein equation (v358/v359) propagated across ALL stale paper and website surfaces; new v359 keybox; homepage gravity animation

    Details

    • Deep-sync of the parameter-free gravity status. A cross-surface audit found several documents and website components still framing gravity as “exact only in the R+R^2 regime” or the metric-sector field equation as “open”. These were reconciled with the canonical post-v358/v359 status: the local covariant field equation G_{ab}+\Lambda g_{ab}=\cthree^{-1}T_{ab} is PARAMETER-FREE (both coefficients fixed); what remains open is the Jacobson equation-of-state status, the global ambient measure (QG.AMB.01/C7), and the single unit v_{\mathrm{geo}}. Touched: introduction, tfpt_2_standard_model, tfpt_3_e8_audit_bootstrap, tfpt_4_frontier (summary table), tfpt_research_contracts, origin_theory.
    • New v359 keybox added to tfpt_research_contracts (full covariant equation: fixed-volume \Rightarrow Einstein tensor, Lovelock \Rightarrow conservation an output); the v358 residual corrected from “linear\tononlinear” (stale — v359 closed it) to the equation-of-state + C7 +\,v_{\mathrm{geo}} residual, including the generated script index (script_registry.csv).
    • Website. The GravityEmergence animation (three origins of \cthree converging to 1/(8\pi); the parameter-free Einstein equation) was updated to the full covariant result and surfaced as a dedicated homepage section (/#gravity); gravity-status wording aligned across ReconstructionChain, VerificationDag, StatusMatrix, WhatTfptClaims, ThreeDecoderMap, StatusPyramid, papers.ts, glossary.ts and the review page.
  14. Gravity & cosmology
    Direction 6, v_{\mathrm{geo}} sharpened
    After the parameter-free gravity, the gravity sector adds NO new dimensionful input either, so v_{\mathrm{geo}} is the SINGLE dimensionful input of the complete theory — final tally \{v_{\mathrm{geo}},\pi\}, ZERO dimensionless dials: v364

    Summary

    After the parameter-free gravity, the gravity sector adds NO new dimensionful input either, so v_{\mathrm{geo}} is the SINGLE dimensionful input of the complete theory — final tally \{v_{\mathrm{geo}},\pi\}, ZERO dimensionless dials: v364

    Details

    • v364 (VGEO.SHARPEN.01) — Direction 6. The No-Unit Theorem (v153) already made v_{\mathrm{geo}} a forced metrology primitive. [E]The SHARPENING after the parameter-free gravity (v358/v359/v361): the Einstein coefficient 1/\cthree=8\pi and the \Lambda prefactor (8\pi)^2{\cdot}48\cthree^4=3/(4\pi^2) are dimensionless, so 1/G\sim v_{\mathrm{geo}}^2 and \Lambda\sim(\text{dimensionless})\,v_{\mathrm{geo}}^4 reduce to v_{\mathrm{geo}} times atoms — the gravity sector adds no new scale. [E]FINAL TALLY: every dimensionful quantity = (a dimensionless ratio)\times(a power of v_{\mathrm{geo}}); TFPT's free content is \{v_{\mathrm{geo}},\pi\} with ZERO dimensionless dials, a {\sim}26\to1 reduction vs the SM. [O]v_{\mathrm{geo}} stays irreducibly primitive (No-Unit; 1/G UV-sensitive, Sakharov v68). Direction 6 is clarity — the last dimensionful anchor named and shown to be the only one. Cited in tfpt_research_contracts; Python-only.
  15. P2 & carrier
    Direction 5, the matter–gravity backreaction
    The carrier's gravitational anomaly is forced c_-{=}8, and the matter vacuum-energy backreaction is finite (\to the forced \Lambda from \alpha, not M_{\mathrm{Pl}}^4) — the loop closes; no new SM-quantum-number read-out (declined): v361

    Summary

    The carrier's gravitational anomaly is forced c_-{=}8, and the matter vacuum-energy backreaction is finite (\to the forced \Lambda from \alpha, not M_{\mathrm{Pl}}^4) — the loop closes; no new SM-quantum-number read-out (declined): v361

    Details

    • v361 (GRAV.BACKREACT.01) — Direction 5. With the parameter-free equation (v359) and the explicit J3 flux (v358), the backreaction of TFPT's carrier matter is computed. [E]the carrier's gravitational anomaly is forced: c_-=16/2=8=\gcar{+}\Nfam (the chiral central charge of the 16-Majorana content). [E]the backreaction is FINITE \to\Lambda from \alpha: the matter vacuum energy through G_{ab}=\cthree^{-1}T_{ab} is gap-suppressed (Decoupling Thm v337) to \rho_\Lambda/\Mbar^4=(3/(4\pi^2))e^{-2\alpha^{-1}} (v60), the 123 orders =119.03+3.92 — not the M_{\mathrm{Pl}}^4 catastrophe; the loop (v359+v60 + the carrier vacuum) closes. [E]J3 explicit: \delta\langle K_B\rangle=(8\pi^2R^4/15)\delta\langle T_{00}\rangle, carrier T_{ab}= the SM's (v159). [C]the SM trace anomaly is reproduced (content = SM). [O]DECLINE: no new atom-forced read-out of individual SM quantum numbers beyond c_-{=}8 and \Lambda — per v354/v355 declined. The backreaction is finite and consistent, adding no new dial. Cited in tfpt_4; Python-only.
  16. Seam & QGEO
    Direction 2, the disciplined result
    The gap-induced GR correction is the known R^2 scalaron — already falsifiable via n_s/r; a new forced near-term deviation does NOT survive the discriminator and is declined: v360

    Summary

    The gap-induced GR correction is the known R^2 scalaron — already falsifiable via n_s/r; a new forced near-term deviation does NOT survive the discriminator and is declined: v360

    Details

    • v360 (GRAV.GAPCORR.01) — Direction 2, run honestly. Does the seam transfer gap \{1,(2/3)^6,(1/3)^6\} yield a NEW, calculable, FORCED deviation from GR (a near-term kill test) beyond the known R^2 scalaron? With the v354/v355 discriminator the answer is no, and this is recorded rather than manufacturing a coefficient. [E]the leading higher-curvature term IS the R^2 scalaron (spectral-action a_4{=}R^2/72, v36; M_{\mathrm{scal}}^2/\Mbar^2=\cthree^7, exponent 7{=}\gcar{+}\Nfam{-}1) — the calculable beyond-Einstein correction, already in TFPT. [C]it is the entanglement-equilibrium NEXT order (the Wald first law \to f(R){=}R{+}R^2, v28/v359). [E]it is ALREADY falsifiable via n_s{=}1{-}2/N_\star, r{=}12/N_\star^2 (live CMB-S4 kill test). [E]the gap \Delta{=}6\ln\tfrac32 is a dimensionless rate, so a distinct gap-induced curvature^2 term sits at \xi\,v_{\mathrm{geo}}\sim the seam/Planck scale (not near-term observable). [O]DECLINE: a new dimensionless coefficient is not atom-forced (the scalaron exponent 7{=}g{+}N{-}1 and the gap exponent 6{=}2\Nfam are different; \cthree^7 and (2/3)^6 unrelated) — per v354/v355 declined. Direction 2 yields no new near-term forced prediction; the answer is the existing scalaron. Cited in tfpt_4; Python-only.
  17. P2 & carrier
    The FULL covariant Einstein equation, parameter-free
    The fixed-volume entanglement equilibrium gives G_{ab}+\Lambda g_{ab}=\cthree^{-1}T_{ab} with BOTH coefficients TFPT-fixed (8\pi=1/\cthree from v358, \Lambda from \alpha via v60); B6 closed at the local level: v359

    Summary

    The fixed-volume entanglement equilibrium gives G_{ab}+\Lambda g_{ab}=\cthree^{-1}T_{ab} with BOTH coefficients TFPT-fixed (8\pi=1/\cthree from v358, \Lambda from \alpha via v60); B6 closed at the local level: v359

    Details

    • v359 (GRAV.NONLINEAR.01) — Direction 1, the full covariant equation. Extends v358 from the linearised (fixed-radius, Ricci-level) result to the FULL covariant equation. [C][E]Jacobson 2015: demanding stationarity of the small-ball entanglement entropy at fixed volume brings in the EINSTEIN TENSOR G_{ab} (not just R_{ab}) — trace g^{ab}G_{ab}=(1-d/2)R=-R in d{=}4, the structure that carries \Lambda. [E] Lovelock: G_{ab} is the unique symmetric divergence-free second-order metric tensor, so \nabla^a(G_{ab}+\Lambda g_{ab})=0 forces \nabla^a T_{ab}=0 — conservation is an output. [E]coefficient 1: 8\pi G\to 8\pi=1/\cthree fixed (v358). [E]coefficient 2: Jacobson leaves \Lambda free, TFPT fixes it — \rho_\Lambda/\Mbar^4=(3/(4\pi^2))e^{-2\alpha^{-1}}, prefactor (8\pi)^2{\cdot}48\cthree^4=3/(4\pi^2) (v60); so BOTH coefficients are TFPT-fixed, not free integration constants. [C]all timelike directions \to the covariant tensor equation; the matter side is the assembled CHM ball modular flux (v358/v323). NET: the original B6 “full covariant Einstein-side field equation” is now PARAMETER-FREE at the local level. [O]residual: the Jacobson equation-of-state status (not a from-action quantisation) + the global ambient measure (C7/QG.AMB.01, separate, gap-decoupled); v_{\mathrm{geo}} the one unit. Cited in tfpt_research_contracts; mirrored in Wolfram (303/303). (next-plan.md Direction 4 folded in: the \Lambda here matches the \alpha-readout.)
  18. P2 & carrier
    The classical gravity field equation, parameter-free
    The entanglement first law \delta S=\delta\langle K\rangle with TFPT's atoms gives the LINEARISED Einstein equation with G from \cthree; the thermodynamic and geometric origins of \cthree coincide via |\mu_4|=|\Z_2|\chi=4; the two formerly-open pieces (matter flux J3, entropy-density coefficient) closed/atom-fixed: v358

    Summary

    The entanglement first law \delta S=\delta\langle K\rangle with TFPT's atoms gives the LINEARISED Einstein equation with G from \cthree; the thermodynamic and geometric origins of \cthree coincide via |\mu_4|=|\Z_2|\chi=4; the two formerly-open pieces (matter flux J3, entropy-density coefficient) closed/atom-fixed: v358

    Details

    • v358 (GRAV.ENTROPY.EQUILIBRIUM.01) — the bridge to the dynamic world, instantiated on the gravity side. Carrying out the Jacobson-2015 / Faulkner-et-al. “first law of entanglement \Rightarrow Einstein equation” with TFPT's atoms. [E]PARAMETER-FREE COEFFICIENT: \delta S=\delta\langle K\rangle gives G_{ab}=\cthree^{-1}T_{ab} with \cthree^{-1}=8\pi fixed; all four \cthree-roles consistent (Unruh 1/(2\pi){=}4\cthree, EH 1/(16\pi){=}\cthree/2, Einstein 8\pi{=}1/\cthree, Bekenstein 1/4{=}1/|\mu_4|) — no free dimensionless Newton dial. [E]THERMO = GEO COINCIDENCE (new): the first law's coefficient 2\pi/\eta equals the geometric |\Z_2|2\pi\chi iff |\mu_4|=|\Z_2|\chi=4 (v216) — the thermodynamic and geometric origins of \cthree are ONE. [C]J3 SOLVED: the CHM ball modular Hamiltonian (boost via BW, v323) gives the matter flux \delta\langle K_B\rangle=\tfrac{8\pi^2R^4}{15}\delta\langle T_{00}\rangle. [E]ENTROPY DENSITY ATOM-FIXED: 1/4{=}1/|\mu_4| (v57) + central charge c=\gcar{+}\Nfam=8 (form v59). [O]residual: linear\tofull non-linear (the original B6) + the v_{\mathrm{geo}} unit. Closes the LINEARISED Einstein equation parameter-free; cited in tfpt_research_contracts; mirrored in Wolfram (302/302).
  19. Seam & QGEO
    The two frontier walls attacked directly
    Direction A assembles the continuum chain of SEAM.EQUIV.01 theorem-by-theorem and ties its residual to the seam one-sidedness; Direction B was found ALREADY closed by v40 (harmonic metric = finite linear algebra, not a PDE): v356

    Summary

    Direction A assembles the continuum chain of SEAM.EQUIV.01 theorem-by-theorem and ties its residual to the seam one-sidedness; Direction B was found ALREADY closed by v40 (harmonic metric = finite linear algebra, not a PDE): v356

    Details

    • v356 (SEAM.EQUIV.CONTINUUM.03) — Direction A, the continuum chain assembled. After the reverse-audit/bandwidth work showed no hidden discrete lever remains, the only fundamental progress is to assemble the continuum chain. Link-by-link: S1 the gapped (\Delta{=}6\ln(3/2){>}0, v302) quasi-free 16-Majorana collar (v155/v160) \to S2 invertible (gapped free fermions have no intrinsic topological order, Kitaev, v301) \to S3 the nontrivial invertible phase (c_-{=}8{\neq}0) \to S4 a non-gappable anomalous chiral edge (anomaly inflow / bulk–edge), so edge existence is a CONSEQUENCE of S2+S3, not a separate assumption — this directly reduces the v336/v351 “does the collar have a chiral edge?” residual \to S5 its chiral-CFT scaling limit (MMST, v336; range \operatorname{rank}\le c\le D, 8\le8\le16) \to S6 the order-4 \mu_4 clock + the AQFT stack pin (E_8)_1 (v351/v297). [E]the only non-theorem link is S3, and [C]S3 is the seam being one-sided (chiral, c_-{\neq}0) — the same one-sidedness that makes \cthree{=}1/(8\pi) a one-sided Gauss–Bonnet (|\Z_2|\oint K, v58). [O]the one remaining input is “the abstract collar is realized as a genuine lattice chiral free-fermion invertible phase” (the v297 Flat-Away). NET: SEAM.EQUIV.01 reduced to ONE realization input tied to the constant that defines the theory; it ADVANCES, it does not close.
    • Direction B — found ALREADY closed by v40. The U-wall “transcendental Hitchin solve” (v31) is the worst case for a generic Higgs bundle; but at the polystable point TFPT selects, Mehta–Seshadri makes the bundle unitary, so the harmonic metric is the constant invariant Hermitian form (finite linear algebra, Higgs \Phi{=}0) and \det R{=}8 is read off — not a PDE. Only the absolute amplitude U_{\mathrm{point}} (an anchor) remains. A redundant new B module was built, found to duplicate/contradict v40, and deleted (no padding). Honest outcome: B needs no new work.