Publication history: 2026-07-14
Original publication entries retain their wording and recorded status. Follow the current research history for later findings and revisions.
14 Jul 2026
5 updates- Seam & QGEOIV
v485— the merged analytic target's computable side COMPLETEDSummary
The diagonal self-energy is renormalised to ZERO exactly at the KMS seam scale, the mark contact calculus resums in closed form (BFK route), and the 48/41 multiplicities are ONE state set under two response weights — the residual collapses onto the
SEAM.EQUIV.01face alone; no gate closes, no marker movesDetails
v485_contact_diagonal_closed.py(SEAM.CONTACT.UNIT.02). The v484 merge left one analytic step: the diagonal (self-energy) zeta-renormalisation at the marks + the multiplicity matching. Settled at the computable level: [E]DIAGONAL ZERO AT THE KMS SCALE — the renormalised coincident-point Green function of |D| on circumference \ell is G_{\mathrm{reg}}(0;\ell)=\tfrac1\pi\ln(\ell/2\pi) EXACTLY (symbolic limit + 30-digit checks); it vanishes iff \ell=2\pi=1/(4\cthree), thev239KMS seam circumference — the seam scale is the unique zero-self-energy scheme point, and the log is the pure SCALE channel (matching the structure: F_{U(1)} carries exactly ONE log term, the transport 8b_1\cthree^6\ln(1/\varphi_{\mathrm{seam}}), while the \phiz split is log-free). [E]CLOSED-FORM RESUMMATION (the BFK/gluing route already in the suite,v151): with the diagonal zero, the finite-rank mark determinant resums exactly — \det(I-uC)=(1-4u)(1+2u)^2, u=\varepsilon\cthree\ln2, all orders, the linear term ABSENT precisely because the diagonal vanishes (\operatorname{Tr}C=0); the series matchesv484's \operatorname{Tr}(C^k)=4^k+2(-2)^k term by term. [E]WEIGHT DICHOTOMY: the SAME 48=3\times16 admissible states carry BOTH multiplicities — counted flat they give the \phiz puncture count 48=\Oadm; Y^2/loop/GUT-weighted they give the alpha budget 41=10b_1=40+1 (\operatorname{Tr}_{16}Y^2=\tfrac{10}3 exact, \nu^c=0; Ginsparg (3/5)(41/6)=41/10,v470) — one state set, two response weights, no new number. [C]/[O]CONSEQUENCE: withv484EVERY finite/computable piece of the mergedALPHA.QUILLEN.EXACT.01+HYP.PHI0.PUNCTURE.01target is proven; the single remaining [O]is the identification of the abstract seam \zeta-det with this glued mark determinant — a face ofSEAM.EQUIV.01, exactly thev382typing, now substantiated computationally. Integrated intfpt_1_architecture_e8(eighth step of the ALPHA.QUILLEN arc) andorigin_theory; ledger rowsSEAM.CONTACT.UNIT.02+ update notes on.01and both targets; Python-only by nature, flagged in the Wolfram README.
- Seam & QGEOIII
v484— the two open analytic targets MERGEThe shared “\cthree per boundary insertion” rule ofALPHA.QUILLEN.EXACT.01andHYP.PHI0.PUNCTURE.01is the KMS seam unit 2\pi=1/(4\cthree) with \tfrac14=1/|\mu_4|, derived on the seam circle for the finite cycle sector — no gate closes, no marker movesSummary
The shared “\cthree per boundary insertion” rule of
ALPHA.QUILLEN.EXACT.01andHYP.PHI0.PUNCTURE.01is the KMS seam unit 2\pi=1/(4\cthree) with \tfrac14=1/|\mu_4|, derived on the seam circle for the finite cycle sector — no gate closes, no marker movesDetails
v484_seam_contact_unit.py(SEAM.CONTACT.UNIT.01). The v483 round left the two analytic targets sharing one rule (“weight \cthree per boundary contact insertion”: the F_{U(1)} ladder \{0,3,6\}, the \phiz puncture \{1,4\}). This module shows the shared rule is NOT a new unknown: [E]the unit chain \tfrac1{2\pi}=4\cthree=|\mu_4|\cthree=|\Z_2|\chi(S^2)\cthree — one bare boundary insertion divided by the orbit order |\mu_4|{=}4 is exactly \cthree; this is the v239 KMS seam unit and the v58/v73 one-sided Gauss–Bonnet in a single identity. [E]the mechanism is DERIVED on the actual seam circle for the finite cycle sector: the bare Green function G(d)=-\tfrac1\pi\ln|2\sin(d/2)| (polylog identity, 40 digits) takes INTEGER multiples of \cthree\ln2 at the \mu_4 separations (G(\pi/2)=-4\cthree\ln2, G(\pi)=-8\cthree\ln2; mark matrix -4\cthree\ln2\cdot\mathrm{circ}(0,1,2,1), spectrum \{4,-2,0,-2\}), so the \mu_4-invariant (orbit-averaged) insertion carries -(\cthree\ln2)C exactly and the log-det contact expansion is exactly graded in \cthree per insertion (\operatorname{Tr}C^k=4^k+2(-2)^k). [E]the grammar is suite-wide: the \Lambda prefactor \tfrac{3}{4\pi^2}=(8\pi)^2 d_{\mathrm{top}}=48\cthree^2 (v60) carries the SAME multiplicity \Oadm{=}48 as the \phiz puncture at TWO insertions; the g{-}2 seam loop divides by the same 2\pi=1/(4\cthree). [C]/[O]THE MERGE: the two tracked [O]targets collapse into ONE named analytic step — the diagonal (self-energy) zeta-renormalisation at the marks + the state-multiplicity matching (48=\Oadm, 41=10b_1); the finite half is proven, no target coefficient is claimed (the integers are forced by the square configuration,v354/v355-clean). Integrated intfpt_1_architecture_e8(seventh step of the ALPHA.QUILLEN arc) andorigin_theory(\phiz split paragraph); ledger rowsSEAM.CONTACT.UNIT.01+ update notes on both targets; Python-only by nature (mpmath polylog), exact identities flagged in the Wolfram README.
- Seam & QGEOII
v482–v483— the deep-dive roundThe \nu-scale decision computation EXECUTED (the integer \cthree^3-rung excluded unstructured, the 5/3-proximate structure escape recorded and declined) and the \phiz puncture target HALVED (the geometric side proven exact: all twisted pillowcase heat traces are t-independent rationals, so the \pi^{-4} must sit in the per-mark coupling weight) — no gate closes, no marker movesSummary
The \nu-scale decision computation EXECUTED (the integer \cthree^3-rung excluded unstructured, the 5/3-proximate structure escape recorded and declined) and the \phiz puncture target HALVED (the geometric side proven exact: all twisted pillowcase heat traces are t-independent rationals, so the \pi^{-4} must sit in the per-mark coupling weight) — no gate closes, no marker moves
Details
v482_seesaw_rung_decision.py(FLAV.NUSCALE.03). The decision computation NAMED byv481is EXECUTED in bracketed (assumption-robust) form: the integer rung M_R=\cthree^3\Mbar needs a rescue factor \times1.670 in m_3 (0.0301 vs 0.0503 eV), while m_t(\overline{\mathrm{MS}})\pm3 GeV (>3\sigma), \alpha_3^{-1}\mp0.10 (>3\sigma), a \pm10\% band on the ADKLR \kappa run-down and a PS-leg Yukawa-beta envelope \times[0.5,1.5] move it by at most \times1.10 singly and \times1.165 ALL-favourably combined — the unstructured rung is EXCLUDED conditional on the carrier premise y_\nu{=}y_t (thev4811-loop miss is not an RG artifact; no exact higher-loop coefficients trusted, pure envelope argument). [C]The only escape is a third-generation Majorana STRUCTURE factor r\sim1.67; its post-hoc 0.18\% proximity to \gcar/\Nfam=5/3 is recorded and DECLINED perv354/v355(no forcing mechanism; the t_0{\sim}30 discipline ofv478). [O]thev481one-parameter window candidate (NO floor \Sigma m_\nu{=}0.059 eV) never used the integer rung and STANDS. Integrated intfpt_2_standard_model(\nu-scale paragraph) andtfpt_5_redteam; ledger rowsFLAV.NUSCALE.03+.02update note; Python-only by nature.v483_pillowcase_exact_traces.py(HYP.PHI0.GEOM.01). The GEOMETRIC side of the \phiz puncture target (HYP.PHI0.PUNCTURE.01/v408) is EXACT: every twisted/orbifold heat trace of the flat \tau{=}i pillowcase is a t-INDEPENDENT RATIONAL — \operatorname{Tr}(\gamma e^{t\Delta})=1 for \gamma=\sigma,\rho,\rho^3 at every tested t (position-space Gaussian image sums <10^{-9}; mode-space proof: only n{=}0 is \gamma-diagonal), matching the Atiyah–Bott fixed-point counts 4{\times}\tfrac14 (\det=4{=}|\mu_4|) and 2{\times}\tfrac12 (\det=2{=}|\Z_2|); the pillowcase contact term is EXACTLY \tfrac12=4\times\tfrac18 per mark and the clock-equivariant trace exactly 1, for all t. THEREFORE the \pi^{-4} in d_{\mathrm{top}}=48\cthree^4=\tfrac{3}{256\pi^4} cannot come from flat orbifold geometry at ANY order: it must sit in the per-insertion COUPLING normalisation (4{=}|\mu_4| marks of weight \cthree give \cthree^4, multiplicity \Oadm{=}48; the bare 1/(2\pi)-propagator 4-cycle differs by the exact rational \tfrac{3}{16}). The target NARROWS from “derive the term” to ONE rule — “per-mark insertion weight =\cthree” (the same residual class as the EM-Ward \cthree-ladder,EM.WARD.02) — and stays [O]. Complements the experiments-side Donnelly probe (honest negative). Integrated inorigin_theory(\phiz split paragraph); ledger rowsHYP.PHI0.GEOM.01+HYP.PHI0.PUNCTURE.01update note; Python-only by nature (quadrature verification of exact statements).
- InfrastructureWebsite + figure refresh — the
/verificationjourney views become live HTML (the stale timeline/residual-chain images replaced by interactive components wired to the in-browser reproducer), the prediction surface's empirical-audit wall of text restructured into dated, expandable rounds, and the generated timeline/residual-chain figures extended to the current suite — presentation only, no content or marker movesDetails
- Website
/verification: live journey views. The staticscript_timeline.pngandresidual_chain.pngimages (stale at thev303–v407figure state, with alt text and captions still describing the old eleven-phase/v237state) are replaced by two interactive components,SuiteTimeline.tsx(17 phases,v1–v481) andResidualChain.tsx(the reduction chain through the certification round to the bedrock): every phase/step lists representativevNscripts that run live in the browser via the existing Pyodide reproducer, exactly like the dependency graph. Stale counts fixed (“\sim295-script journey”, “260 scripts” \to the generated suite total). The dependency graph itself was verified current (v479–v481present; all 288 referenced scripts exist in the registry and the website mirror). - Prediction surface: the empirical-audit narrative restructured. The single \sim13 000-character audit paragraph in
lib/predictions.tsis split into twelve dated, verdict-badged rounds (AuditRound: date, title, verdict, two-sentence summary, full unabridged record on expand) plus a domain-chip row and the anti-double-counting note — same content, readable surface. Long-token overflow fixed (break-words) in the dependency-graph detail panel and the universal-gap-lab residual cards; the over-longALPHA.QUILLENresidual note tightened to its current state (v470/v472, residual unchanged). - Generated figures + captions synced.
make_figures.py: the script timeline gains thev408–v481certification-round phase (title now \sim475 scripts) and the residual chain gains thev458–v480certification step (Kronheimerv479, four-intervalv480, crossed-productv469) with sub-text wrapping fixed; figures regenerated (PDF + website PNG). The stale figure captions updated:introduction(timeline caption now spans the full arc),tfpt_research_contracts(residual-chain caption now states theSEAM.EQUIV.01bedrock and certification round; QFT-skeleton caption now names the one [O]residual instead of the outdated “two open items”). No numbers, statuses or claims change anywhere. - KaTeX macro fix (broken formula rendering). Formulas copied from the document set that use the shared TeX macros (
\gcar,\Nfam,\cthree, …) rendered as red KaTeX errors on the site (e.g. the \varphi_0^{\mathrm{tree}} icosahedral-combinatorics formula on the Origin-Theory page). A shared macro map (lib/katex-macros.ts, mirroring thechangelog.texpreamble) is now passed to every KaTeX render; an automated scan of all 19 site routes finds zerokatex-errornodes. - Readability pass (text walls clamped, content unchanged). A reusable
Expandablecomponent clamps long mirror prose with a fade + “Show more” toggle — applied to the paper-section bodies and front-box bullet lists (PaperSection.tsx, the home set pages and/papers/[slug]), the dependency-graph node summaries and the prediction-card descriptions. Nothing is deleted; the full text expands in place. - Hylaean ecosystem card corrected. The
hylaean.aicard spoke of “Field AI” with structure tags that did not describe the project. It now speaks consistently of Hylaean and is grounded in the project documentation (_documentation/core-physics/big-picture.md) and the site's own status log: one cognitive substrate behaving like a physical material, knowledge = attractor valleys, question = boundary condition, answers committed only on physical landing, capability claims gate-checked against a machine-checked claim registry (honest negatives published) — borrowing TFPT's structural discipline, not its physics predictions. The Agentic-Commerce card reference updated accordingly. - Live-site correctness pass (counts + reading order). Sitewide audit against the deployed page found stale counts and fixed them: the document set is stated everywhere as 10 documents = 1 reading guide + 5 numbered papers + 4 companions (the safeguards companion was missing from the papers/downloads headers, the JSON-LD collection and the
tfpt_docset.texbox, which still said “three companions” next to “four”); the stale “23 falsifiable predictions” claims (site metadata, OG image,llms.txt) now state the live count of the prediction surface (25 test surfaces, sourced frompredictions.lengthwhere possible), while the interactive compiler page is honestly labelled as its own 23-readout prediction board (the standalone app's board genuinely has 23 entries; the intro film keeps its spoken “twenty-three”); and the/orientationreading-order lists are fixed to the canonical numbering (Red Team = Doc 5 added, Appendix H = 6, Origin = 7, contracts = 8, safeguards = 9 — the old list mislabelled 6/7 and omitted three documents). Presentation/consistency only; no physics content changes.
- Seam & QGEO
v479–v481— the bird's-eye “overlooked tools” roundR3's graph\togeometry bridge discharged to Kronheimer 1989; the four \mu_4 marks realised as the exactly solvable four-interval multilocal modular geometry with \omega\circ\rho=\omega manifest; and the absolute \nu-scale collapsed to a one-parameter, PS-window-bracketed candidate under the carrier normalisation y_\nu{=}y_t — no gate closes, no marker movesSummary
R3's graph\togeometry bridge discharged to Kronheimer 1989; the four \mu_4 marks realised as the exactly solvable four-interval multilocal modular geometry with \omega\circ\rho=\omega manifest; and the absolute \nu-scale collapsed to a one-parameter, PS-window-bracketed candidate under the carrier normalisation y_\nu{=}y_t — no gate closes, no marker moves
Details
v479_kronheimer_quiver_bridge.py(SEAM.KRONHEIMER.01). The R3 residual of the \det K{=}1 keystone (v344: “the rewrite attractor graph IS the du Val singularity”) is an ESTABLISHED THEOREM — Kronheimer's ALE hyper-Kähler quotient construction + Torelli classification (J. Diff. Geom. 29 (1989) 665 and 685) — with all finite input data already compiler outputs, machine-checked [E]: the Kac marks \{1,2,2,3,3,4,4,5,6\} are the null vector of the affine-E_8 Cartan matrix AND the Perron vector A\delta{=}2\delta of the rewrite attractor (v312); the hyper-Kähler quotient dimension count lands exactly on 4 (the \mathbb{C}^2/\Gamma geometry; \sum_{\mathrm{edges}}d_id_j{=}\sum d_i^2{=}120 forced by the null identity); the gauge datum is |2I|{=}120{=}|\mu_4|h(E_8), h(E_8){=}30{=}2\cdot3\cdot5; the resolution carries the unimodular -E_8 form (\det{=}1, SNF = identity — the Poincaré link) with 3\cdot8{=}24 deformation parameters. [C] the theorems are cited, not re-proved (import class of NPW26/MMST/AGT); [O]the residual premise transforms to “the raw seam supplies ALE hyper-Kähler data asymptotic to the (2,3,5) cone” — the same single arrow asSEAM.EQUIV.01(v346L2). Integrated inorigin_theory(R3 keybox + new Kronheimer paragraph) andtfpt_research_contracts(Kummer/du Val); ledger rowsSEAM.KRONHEIMER.01+SEAM.DETK.01update note; Wolfram mirror added to the extension file (+2 exact checks, counted with the next verified engine run — the local engine is currently unactivated; the identical statements are sympy-exact inv479). LEAN: the finite input data are kernel-checked inTfptCarrier/KronheimerMarks.lean(marks = null/Perron vector over \Z, \sum\delta_i^2{=}120{=}4\cdot30, 30{=}2\cdot3\cdot5, dimension count =4; lake build clean,#print axioms= the three standard kernel axioms only).v480_multilocal_four_interval.py(QGEO.MULTILOCAL.01). The seam circle minus its four marks IS the n{=}4 multi-interval region of a chiral free fermion — the class whose multi-interval modular theory is exactly known (Casini–Huerta mixing term; Longo–Xu; Rehren–Tedesco multilocal fermions; KLM: holomorphic \Leftrightarrow trivial multi-interval inclusion, \mu{=}1 — the same one bit as \det K{=}1); until now the suite used only the single-ball CHM boost (v358). On the exactly solvable antiperiodic critical ring: [E]the quarter-turn clock is a signed permutation with \rho^4{=}{-}1 EXACTLY (the fermionic \mu_4 clock is the order-8 double-cover lift — the same \Z_2-lift pattern as 2I over I); [E]its primitive-8th-root character projectors decouple the 4-interval covariance at 10^{-15}, each sector a single-interval quarter-ring kernel with boundary twist (10^{-14} spectra); [E]\rho C\rho^{-1}{=}C at 10^{-14}, so \omega\circ\rho{=}\omega holds manifestly at the 4-interval state level, and a one-site displacement re-couples the sectors at 10^{-2} (negative control); [E]the cross-interval modular coupling peaks on the conjugate-point diagonal (the Casini–Huerta mixing shadow). [C]continuum theory cited; [O]the raw-seam premise (QGEO.SYM.01/SEAM.EQUIV.01) unchanged. Integrated intfpt_research_contracts(marks keybox + rigidity contract + v478 leg A),origin_theory(BW paragraph),tfpt_4_frontier(v358 companion note); Python-only by nature.v481_seesaw_carrier_ladder.py(FLAV.NUSCALE.02, CANDIDATE class, genrev467/v468).FLAV.NUSCALE.01's y_\nu{=}1 probe was not the carrier normalisation: one SO(10) \mathbf{16} per family + the minimal Yukawa sector (\mathbf{10}_H / PS (1,2,2)) forces y_\nu{=}y_t at the matching scale (named premise). With explicit 1-loop RG (gauge/y_t/\lambda up; ADKLR Weinberg-operator running down, hep-ph/0108005) the (y_\nu,M_R) trade-off collapses to M_R alone: the observed m_3{=}0.0503 eV demands M_R{=}9.3{\times}10^{13} GeV — INSIDE the PS window [4.2{\times}10^{13},2.4{\times}10^{15}] (v249) at \log_{\cthree}(\Mbar/M_R){=}3.15 (the y_\nu{=}1 inversion gives the structureless 2.58). [X]honesty gate: the integer rung M_R{=}\cthree^3\Mbar predicts m_3{=}0.030 eV — 40\% low at 1-loop (\kappa run-down 0.794) — the ladder pin is DECLINED perv354/v355; the decision computation is named (2-loop SM + explicit PS thresholds). What survives: a one-parameter, window-bracketed [O]candidate with the falsifiable band m_3\in[0.002,0.115] eV and the NO floor \Sigma m_\nu{=}0.059 eV; frozen record untouched. Integrated intfpt_2_standard_model(new paragraph afterv272),introductionstatus card (third named candidate),tfpt_5_redteam; ledger rowsFLAV.NUSCALE.02+FLAV.NUSCALE.01update note; Python-only by nature.- Honest negative (experiments-only, no promotion): the Donnelly/Atiyah–Bott equivariant heat-kernel route for the \phi_0 puncture target (
HYP.PHI0.PUNCTURE.01) types the KIND of term (order-4 equivariant contact datum; the exact weights \sum_{k=1}^{n-1}\tfrac1{4\sin^2(\pi k/n)} {=}\tfrac{n^2-1}{12} verified) but does NOT force the value 48\cthree^4 (pure rationals vs \pi^{-4}) — recorded inexperiments/theory-contracts/phi0_donnelly_equivariant_probe.py; the target stays [O].