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Results, with their exact scope.

The complete active claim ledger and the eligible source reviewed research findings, including conditional achievements and precise negative results. The original statement, premises and status remain attached.

Research snapshot 2026-11-02 · 783 active ledger claims · 696 scientific findings · 707 registered scripts. These are different inventories, not counts of independent physical confirmations.

What does this inventory cover?

Every one of the 783 active ledger IDs is included. All 788 ledger rows, including superseded rows, remain in the download. The reviewed research corpus contains 697 findings; 1 administrative record is excluded from public scientific content, with the omission recorded in the coverage file.

The scientific findings include 505 established scoped results, 63 conditional results and 128 scoped exclusions. These labels describe the recorded finding. They do not upgrade its parent physical goal or overwrite the original ledger.

Sources were matched to their recorded hashes and line ranges at this snapshot. Bounded text excerpts make sources available even when a source is not in the earlier public release. Any omitted administrative lines are explicitly marked. This is source coverage, not a new execution of Python, Lean or Wolfram proofs.

Atlas revision 3ddcc9643e499ce39900d9c5 · snapshot SHA256 7622b36de7ed79901ae75361b009fa423a6505076f388f4fbaf2d42e1ba7dcf5

230 matching records · page 2 of 12

Original ledger status

GATE.METRIC.02

GATE.METRIC.02

Gate 2 attack - two clean tiers (was: diffuse 'full QG missing'). TIER A (physics, CLOSED under RP+gap): Decoupling Theorem - Delta_eff=Delta-2||V||=6log(3/2)-31/(4pi^2)=1.648>0 with ||V_metric||_rel<=248 c3^2=dim(E8) c3^2=31/(8pi^2) (31=2^gcar-1); strictly positive effective gap protects the admissible IR sector => every testable low-energy readout (masses, mixings, alpha^-1, R+R^2) is independent of G6. TIER B (strict TOE, REDUCED not closed): the seam is a FINITE causal boundary => the ambient BULK metric measure is reconstructed from a finite-codimension seam-Calderon BOUNDARY measure (holographic) => G6 is a BOUNDARY projective limit; conditional theorem RP(seam-Calderon)+tightness => G_metric closes. Residual = boundary projective limit (constructive-QFT grade), reduced not closed

Recorded status: Identity [I] (decoupling, cond. on norm bound) + [P]/[A] (boundary G6)

Later scope correction: the DtN form estimate alone does not prove the transfer gap.

Dependencies, status detail and source

Canonical status: Identity [I] (Tier A) + [P]/[A] (Tier B boundary measure)

Dependencies: CONTRACT.G.01; QG.GAPDEC.01; GATE.METRIC.01

Scripts: v76_gmetric_reduction.py

Location: tfpt_research_contracts;origin_theory

Original CSV, line 142

Original ledger status

REG.FREEZE.01

REG.FREEZE.01

Blind-prediction registry FROZEN 2026-06-09, machine-enforced (review point: pre-registration before JUNO/CMB-S4/LiteBIRD/DESI). predictions_frozen.json freezes every dimensionless prediction of record at 25 significant digits; v84 re-derives each decimal from the two axioms {c3,g_car} on every run, so formula and frozen value are locked together (changing either alone FAILS the suite; the file is covered by manifest.sha256). Registry layers: core [N] (alpha^-1, lambda_C, s23/s13 CKM, sin^2 th13, lepton + quark mass ratios), conditional [N]/[P] with the hypothesis NAMED (th12 seed via seam-misalignment, beta_rad, Omega_b, delta_CKM leading, M_scal/Mbar, rho_Lambda/Mbar^4 branch), assigned (delta_CP^nu=240deg, th23=0.5), conditional BANDS for r and n_s at the declared external N_star in [50,60]. THETA12 FREEZE ENFORCED: exactly ONE prediction of record = seed 1/3-phi0/2 = 0.306747357245; the seam (0.306808) and nonlinear (0.307020) values are typed as derived variants of the SAME texture and may NOT appear as predictions (look-elsewhere ambiguity machine-excluded)

Recorded status: Numerical [N] (registry lock) + typing discipline

Dependencies, status detail and source

Canonical status: Numerical [N] (registry lock)

Dependencies: EM.FP.01; FLAV.TH12.01; PRED.LAYER.01; freeze_file.csv

Scripts: v84_frozen_registry.py

Location: verification;tfpt_2;introduction

Original CSV, line 158

Original ledger status

FLAV.PENCIL.05

FLAV.PENCIL.05

MASTER-COVER THEOREM (answers next.txt P3; resolves P6 negatively; types P4) [I]/[L]: the anchor-block determinant is GL(2)-COVARIANT on the pencil plane span{K,Q} - det B((aK+bQ)+x(cK+dQ)) = (gamma x+alpha)^2 * p_KQ(moebius_G(x)) exactly (symbolic identity), with disc = 81*det(G)^2 = N_fam^4 x square. CONSEQUENCE: there is exactly ONE anchor-block double cover up to Moebius reparametrisation of the line, the master cover y^2=(3x+2)(3x+5) of v81; the whole disc-81 family observed in next.txt P3 (branch {-8/3,-5/3} for L+xQ, {-5/8,-2/5} for K+xL, {-3/2,-3/5} for Q+xK) is its GL(2) orbit, and the conspicuous rung -8/3 = -rank(E8)/N_fam is the carrier branch point shifted by ONE transport period (rank E8 = g_car+N_fam: -(g_car+N_fam)/N_fam = -g_car/N_fam - 1), i.e. no new structure. NEGATIVE CONTROLS (anchor-first hardened): leaving the anchor plane in the R-direction gives non-square discriminants 153 (R+xQ) and 201 (K+xR) - non-split, no rational cover. P6 HONEST NEGATIVE: the natural 4-sheet candidate det B(K+xQ)*det B(L+xQ) factors through the forced square (3x+5)^2, so mu4=Z4 does NOT act as a genuine 4:1 cover of the pencil line; the transport tower generates a LADDER of double covers (rung n: branch {-2/3-n,-5/3-n}) with second level w^2=(3x+2)(3x+8) (disc 324=18^2) connecting Koide to rank E8 at branch separation 2=|Z2|. P4 TYPED: the branch-divisor trace -7/3=-scalaron/N_fam fixes only the SCALE exponent (M_scal=c3^{7/2}Mbar); n_s=1-2/N_star and r=12/N_star^2 are functions of the external N_star alone, so the cover cannot promote the tilt from [P]. Physical readings (Koide branch <-> physical Koide, sheet <-> half-spinor) stay [P] as in v81/v82

Recorded status: Identity/Lattice [I]/[L] (GL(2) covariance + family classification) + [P] physical readings

Dependencies, status detail and source

Canonical status: Identity/Lattice [I]/[L]: one master cover; family = GL(2) orbit; mu4 not a 4:1 cover; tilt stays [P]

Dependencies: FLAV.PENCIL.04; v80; v81; v82

Scripts: v85_master_cover.py

Location: verification;next.txt

Original CSV, line 159

Original ledger status

SEAM.AREACOEFF.03

SEAM.AREACOEFF.03

Seam-Horizon programme: the Fursaev-Solodukhin factor 4pi is now DERIVED, not imported [I] (removes the literature import of v67): (1) smoothed-cone Gauss-Bonnet - regularising the 2D cone (opening alpha) by a tangent spherical cap (tangency alpha=cos theta0) gives Int K dA = 2pi(1-cos theta0) = 2pi(1-alpha) EXACTLY, independent of the smoothing radius (topological; GB closure Int k_g=2pi alpha, chi(disk)=1; limits: hemisphere->cylinder alpha=0, flat->plane alpha=1); (2) codim-2 lift: Int sqrt(g)R -> 2*2pi(1-alpha)A = 4pi(1-alpha)A; (3) replica definition S=-d_alpha[logZ(alpha)-alpha logZ(1)]|_1 with logZ=k_red Int sqrt(g)R gives S=4pi k_red A with the smooth part dropping out - the FS relation machine-derived; (4) k_red=c3/2 (v73/SEAM.KHALF.01) => S=2pi c3 A, and S=A/4 forces c3=1/(8pi) UNIQUELY (sympy-solved). RESIDUAL ISOLATED [A]: the single remaining step is 'replica variation of the seam determinant (gapped Calderon kernel) produces the EH form k_red Int sqrt(g) R with cutoff-independent k_red' = the Seam-Horizon Theorem proper (SEAM.THEOREM.01); steps 1-4 contain no Bekenstein-Hawking import

Recorded status: Identity [I] (chain derived) + [A] (the one isolated residual)

Dependencies, status detail and source

Canonical status: Identity [I]: S=4pi k A derived; S=A/4 <=> c3=1/(8pi); residual = seam determinant => EH form

Dependencies: SEAM.AREACOEFF.01; SEAM.AREACOEFF.02; SEAM.KHALF.01; SEAM.THEOREM.01

Scripts: v90_conical_defect_chain.py

Location: origin_theory;tfpt_horizon_readouts

Original CSV, line 164

Original ledger status

GATE.WOLFRAM.02

GATE.WOLFRAM.02

Second [C] path EXTENSION VERIFIED RUNNING: verification/wolfram/tfpt_readouts_extension.wl mirrors the v84-v110 round (frozen registry, master cover, reheating arithmetic, SO(16)_1 modular data, carrier index, conical defect chain, spine tetrahedron, glue uniqueness, Koide relaxation toy, sheet diamond v94, centered diamond v95, branch-kernel selection v96, sheet-conjugation bridge v97, discriminant dictionary v98, Koide flow time v99, horizon anchor v101, seam orientation v102, trisection normal form v103, Nariai clock v104, residual inventory v105, review validation v106, quantum-clock target v107, Pascal ladder v108, sheet pairing v109, Calderon-sheet selection v110, quadratic transport v111, self-counting channel v112, quasi-free kernel v113, torsion delta v114, anchor residue v115, resonance theorem v116, monodromy = W(A3) v117, hexagon-family dictionary v118, second review validation v119, address table v120, address pinning v121, margin theorem v122; inventory update v123 ledger bookkeeping Python-only; resummed clock v124, glue Q-system v125, clock-wall bridge v126, ring resummation v127, graded hull v128, entropy power law v129, Born square v130, measure-is-area v131, det-ratio anomaly v132, zeta budget v133, dual anchor v134, determinant surface v135, dual-normal selector v136, Q+ cohomology v137, VW firewall v138, selector triangle v139, canonical map v140, deck selection v141, frame integrality v142, graded Frobenius v143, det-ratio family cancellation v144, pairing atoms v145, Moebius D4 realisation v146, clock Gaussian model v147, NS/R sector census v148, cusp normal v149, replica EH model v150, BFK split v151, R3 normalisation = anchor v152, No-Unit Theorem v153, Simple-Current Extension v154, seam-net construction v156, rigid fixed point v157, fixed-point stability v158, PyR@TE gauge cross-check v159, QGEO rigidity v168, E8 slice compression v170, atomic OS moment + Sugawara v171, trace-anomaly seed v172, seam Fock readings v174, net existence + full-cone RP v175 - their [N] census/RH/ODE parts Python-only; v155 quasi-free boundary is numerical/numpy, Python-only; the v160-v167 + v163/v164/v166/v169 + v173 rounds are numerical/inventory, Python-only; v176 Seam Collar Realisation Theorem is an assembly/reduction certificate, its exact identities already mirrored via v168/v156/v162/v154/v175, so Python-only; v177 QGEO proof tree is Moebius/cohomology symbolic (uniformisation, omega_k characters, residues), Python-only; v178 MARKS/KERNEL deeper-reduction attempt is Moebius/Schur symbolic + numeric, Python-only; v179 conformal-realisation unification is arithmetic/bookkeeping (Gauss-Bonnet chi=2, h(A3)=4, rank/cohomology counts), Python-only; the v180/v181 Moebius reductions (uniformisation + Kerekjarto + finite-order Moebius / equivariant uniformisation) are symbolic + cited-theorem, Python-only; v182 reviewer-residual map is reduction bookkeeping + arithmetic, Python-only; v183 Koide F-corner 53/54 operator identity IS exact and mirrored; v184-v188 F_transfer-firewall round is numerical/bookkeeping Python-only; v189 Riemann-Roch carrier (h0=5/rankH1=3=rank(D5)/N_fam), v190 Nariai entropy bound ((x-1)^2), v191 universal branch line (affine relabeling + decoy control) ARE exact and mirrored; v192 energy-clock reformulation is [O] structural, Python-only; v201 QGEO.SUBPRIN.01 (a mu4-mark sum is Z4-invariant => sub-principal block-diagonal) and v203 HOR.EHT.01 (the EHT polarization coupling 16 c3^4 = 1/(256 pi^4) = delta_top/3) ARE exact and mirrored; the 2026-06-15 archive-integration round adds v204 FR.MUONG2.01 (a_mu^seam = 45/(524288 pi^9) = (5/4)(48 c3^4)^2/(2 pi)), v205 GRAV.XI.01 (xi = c3/phi_tree = 3/4 = q(A3) = ln(m/mu)), v208 HOR.BHTHERMO.01 (scalaron Wald f_R = 1 + R/(3 Ms^2) + modular 2 pi = 1/(4 c3)) ARE exact and mirrored; the 2026-06-15 pillowcase round adds v214 QGEO.PILLOW.01 (cross-ratio 2 => j=1728 => square modulus => order-4 CM clock, unifying v180 ISO + v201 SUBPRIN; chi_orb=0 + lemniscatic CM order 4 + neg control) and v216 QGEO.MARKS.03 (the four marks from Gauss-Bonnet: n=2chi=4 + Euclidean-orbifold uniqueness; numerical sibling v217 Python-only) exact and mirrored, while v206 H0 branch, v207 asymptotic safety, v209 BH defect are numerical/[P] Python-only; the 2026-06-15 diamond-axis-geometry round adds v218 DIAMOND.AXIS/PLUCKER/SPECTRAL.01 (det(C+xU)=14+6x linear vs det(C+yV)=14+14y+4y^2 quadratic, curvatures (8,6)=(rank E8,|R^+(A3)|); Plucker ladder K->C->F steps (1,8,10),(1,8,16); spectral ramification squares (1,3,4,6) kernels (13,48,65,105)) exact and mirrored, while its anchor-defect/pair-sum audit blocks + F=transfer-corner heuristic stay Python-only). First engine run 2026-06-11 (Wolfram Engine 14.3): v84-v93 block passed 45/45 on first run; v94-v97 block added same day; the 2026-06-17 closure round adds v259 PS.SPECACT.02 (the seam KMS cutoff f(u)=e^{-u} gives f_2/f_0=f_4/f_2=1 exactly, Gaussian control sqrt(pi)/2) and v260 ARCH.K3.01 (one Kummer/K3 carries seam+carrier-16+E8: E8 Cartan det 1/even/pos-def, K3 lattice U^3(+)E8(-1)^2 rank 22/det -1/even/signature (3,19), 16 nodes=|A[2]|=2^4=dim S+, 4 marks) exact and mirrored, while v258 PS.DIRAC.03 (Dirac-as-covariance log((1-C)C^-1)=H matrix-log identity) is numerical/Python-only; the 2026-06-17 v267 (QGEO.SYM.02 rigidity: cross-ratio 2, j=1728<=>lambda in {-1,1/2,2}, hexagonal j=0) and v268 (FLAV.TH13.01: theta_13 exponent 5/6=tr_E Y^2) are exact and mirrored; the 2026-06-18 round adds v271 QFT4D.SPERT.02 (concrete EG one-loop: bubble sd=4=d => omega=0 => one log counterterm, loop factor Omega_3/(2(2pi)^4)=1/(16 pi^2), phi^4 beta=3 lambda^2/(16 pi^2)) exact and mirrored, while v269 (S_pert skeleton) + v270 (PMNS Jarlskog, numerical) stay Python-only; v273 (QFT4D.SPERT.03: the EG one-loop gauge self-energy -> b3=-7, b2=-19/6, b1=41/10 from the content) is exact and mirrored, while v272 (nu-scale), v274 (over-determination) and v275 (QG.AMB.01 roadmap) are numerical/structural Python-only; v277 (QGAMB.TIERB.01: det Cartan(E8)=1 vs det Cartan(D8=SO16)=4 + the (E8)_1 character 248 currents) and v278 (QFT4D.SPERT.04: the one-loop optical theorem, bubble discontinuity (x_+ - x_-)^2 = 1-4m^2/s = the two-body phase space), v281 (QGAMB.MODULAR.01: #anyons=|det Gram| tower 16->4->1 + Gauss-Milgram c=8) and v282 (QGAMB.UNIFY.01: j=1728 + chi_E8(i)=1728^{1/3}=12) are exact and mirrored, while v276 (flat-pillowcase commutator), v280 (pillowcase DtN) and v283 (kill-test scorecard) are numerical Python-only; the 2026-06-22 arithmetic-arc round adds v313 GOLD.ATOMS.01 (affine-E8 charpoly factors x(x^2-4)(x^2-1)(x^2-x-1)(x^2+x-1) with golden x^2-x-1; (2,3,5)=2cos(pi/k); 31/30 icosahedral selection), v314 RATE.TRANSLATE.01 (rational kernel vs Q(sqrt5) dynamic rate; translation on Q only), v315 COX.COUPLE.01 (30=5*6, EulerPhi(30)=8=rank E8, Galois mu4xZ2, sqrt5 Gauss sum), v316 GALOIS.READOUT.01 (rho=zeta6=zeta30^5, rho^4=-rho, Gal=Z2=CP conj), v317 GALOIS.FAMILY.01 (Nfam=3=mu3 orbit, 1+2 Galois split), v318 ARITH.CAPSTONE.01 (phi0=(4/3)c3+48c3^4 pure pi) and v320 GALOIS.CP.PREDICT.01 (delta_PMNS=4pi/3=delta_CKM,lead+pi=240deg) -- all exact and mirrored (10 checks), while v319 translation clock is structural Python-only; the 2026-06-22 rounds v325-v352 (continuum/realisation/framework: v325/v327/v337/v341/v342/v344/v345/v347/v348/v349/v350/v351/v352) and v354 E8.REVERSE.AUDIT.01 (3 of 8 E8 Casimir degrees {2,8,30} primary readouts, 5 {12,14,18,20,24} = the hull overhead; the golden ratio 2cos(pi/5) is unmapped structure, so not numerology) and v355 E8.UNMAPPED.BANDWIDTH.01 (the unmapped region's forced content is collective: sum(degrees)=128=dim S^+, product=|W(E8)|, exponents=totatives of 30; per-degree atom matches unforced and declined; reconciles v66+v354) are mirrored; and v358 GRAV.ENTROPY.EQUILIBRIUM.01 (the entanglement first law with TFPT atoms gives the linearised Einstein equation parameter-free 1/c3=8pi; the thermodynamic 2pi/eta and geometric |Z2|2pi chi origins of c3 coincide via |mu4|=|Z2|chi=4; CHM 3-ball weight integral 4pi R^4/15 assembles the matter flux J3) and v359 GRAV.NONLINEAR.01 (the full covariant G_ab+Lambda g_ab=(1/c3)T_ab via the fixed-volume equilibrium; Einstein-tensor trace (1-d/2)R=-R in d=4; both coefficients parameter-free 8pi=1/c3 and Lambda prefactor (8pi)^2*48c3^4=3/(4pi^2)) are mirrored; the 2026-06-24 sheet-generator round adds v410 SHEET.GEN.BINARY.01 (V=Q diag(0,1,1) is a binary internal compiler: V^n={{0,2^(n-1),0},{0,2^n,0},{0,2^(n+1)-2,1}}, V^n.1=(2^(n-1),2^n,2^(n+1)-1); bilinears 1.V^n.1=7 2^(n-1)-1, 1.V^n.a=7 2^(n-1), a.V^n.a=11 2^(n-1), a.V^n.1=11 2^(n-1)-2; readouts (6,7,9,11),13,27,55,56; theta sigma3(2)=9=a.V.1, sigma3(3)=28=1.V^3.a=det(I+R), sigma3(5)=126), v411 FLAV.UD.VPOWER.01 (c_u/c_d=(1.V^4.1)/((a.V.1)(1.V^2.1))=55/117, a re-encoding of 5*11/(9*13)), v412 DIAMOND.SHEET.SOURCE.J.01 (the Z2-wall corner J=M(1,-2)=C-2V, chi_J=lam^3-6lam^2+3lam-2, a.J.a=30=h(E8), det(I+J)=12, det(2I+J)=40), v413 DIAMOND.SHEET.CALCULUS.01 (e1=3t+12,e2=2t^2+15t+25,e3=4t^2+14t+14 => Delta e1=3, Delta^2 e2=4, Delta^2 e3=8; anchor energy a.M_t.a=52+11t) and v414 DIAMOND.CENTER.RESOLVENT.01 (resolvent ladder det C=14, det(I+C)=52, det(2I+C)=120 = G2->F4->E8^+) -- all exact and mirrored (5 checks), binary-spine/Lie readings stay [C]; the 2026-06-25 Gaussian/trichotomy round adds v415 DIAMOND.GAUSS.01 (J=[U,V]/3 is the mu4 quarter-turn J^2=-I born from [binary V, ternary U]; 3+2i/5+4i are eigenvalues of 3I+2J/5I+4J with norms 13=Delta_Q/41=10b1; the v222/v230 norms as operator identities; the intrinsic order-4 deck D=-I+J-J^2 with chi2 line ker[U,V]=a-1) and v416 ARITH.TRICHOTOMY.01 ({2,3,5} ramified/inert/split in Z[i] vs Z[omega], the ramified prime of each ring = its atom, each atom the unique ramified prime of one facet of Q(i,sqrt-3,sqrt5)) -- 7 checks; plus a one-character sign fix to the pre-existing v412 CharacteristicPolynomial check (Wolfram returns -(chi) for odd rank), so the file now runs genuinely clean; the 2026-06-25 Eisenstein/CP round adds v417 DIAMOND.EISEN.01 (the hex dual of v415: the family rotation P=(1 2 3) realises the hex norm 7=N_omega(3+2omega) via (3I+2P)(3I+2P^2)={7,7,25}; the CP clock W=-P^2 with W^2=P, W^3=-I gives delta_CKM=pi/3, delta_PMNS=4pi/3; all flavor clocks are zeta30-powers and the seam mu4 is the Galois side phi(30)=8=rank E8) -- 3 checks; the 2026-06-25 cyclotomic-norm-triple round adds v418 ARITH.NORMTRIPLE.01 (the carrier-5 clock = the 4x4 Phi5-companion C5 with the golden ratio in its 2cos values; N(3+2 zeta5)=det(3I+2 C5)=55=quark numerator; the triple det(3I+2 Comp(Phi_{3,4,5}))=(7,13,55) over Z[omega],Z[i],Z[zeta5]; neg control anchor (5,4)->(21,41,461)) -- 3 checks; the 2026-06-25 seam-Galois round adds v419 SEAM.GALOIS.01 (30 squarefree => no order-4 cyclic, so the seam mu4 is the Galois side (Z/30)^x=mu4 x Z2; the mu4 factor IS (Z/5)^x=Gal(Q(zeta5)) (carrier), the Frobenius zeta5->zeta5^2 the explicit order-4 operator G with G C5 G^-1=C5^2, G^4=I; resolves the v409 asymmetry) -- 3 checks; the 2026-06-25 Galois<->Net bridge round adds v422 SEAM.GALOIS.NET.01 (the seam mu4=Gal(Q(zeta5)) is the SAME cyclic Z/4 as the (E8)_1 simple-current glue: disc(A3)=disc(D5)=Z/4 cyclic via SNF, (Z/5)^x=Z/4, glue (1,1) order 4 => 16/4^2=1=E8; Klein/order-2 control => D8 det 4) -- 3 checks; the 2026-06-26 pentagon/golden round adds v429 DM.AXION.PENTAGON.01 (the 'unmapped' golden E8 structure surfaces in the one external input theta_i: since N_fam=g_car-2, theta_i=pi N_fam/g_car=(g_car-2)pi/g_car is the interior angle of the regular g_car-gon = the pentagon 3 pi/5=108 deg, cos=-1/(2 phi), golden character unique to g_car=5) -- 3 checks; the 2026-06-27 other-side audit round adds v430 E8.OTHERSIDE.AUDIT.01 (the double-cover 'other side'/deck |Z2|=2 + the 128-spinor S^+ (+) S^- is forced-disjoint from the five unmapped E8 Casimir degrees {12,14,18,20,24}: deck=matched degree-2=Min(deg), 128=8*16=2^(rank-1)=Total[deg] the spinor half of 248=120+128, sheet set {2,16,32,128} cap {12,14,18,20,24}={}) -- 3 checks; the 2026-06-27 degree-ladder round adds v431 E8.DEGREE.LADDER.01 (the five 'unmapped' degrees are the forced two-family decomposition deg(E8)=6*spine{2,3,4,5} U ({2} U det-ladder{8,14,20}): exponents=phi(30)=8 totatives of h=30=2*3*5 => degrees only in {0,2} mod 6; 6k/6=v91 spine, 6k+2={8,14,20}=(det R,det C,det L)=winding line 6s+8 (v135); 18=6*N_fam not a holdout; clean split special to E8 (E6/E7/D5 fail); arithmetic exact [E]/[I], functorial flavor map stays [P]) -- 6 checks; the 2026-06-29 degree-joint round adds v437 E8.DEGREE.JOINT.01 (all of E8 fixed by its degree multiset -- rank=8, h=30, 120/240 roots, dim 248, |W|=696729600, sum(deg)=128; the two structural integers (g_car,N_fam)=(5,3) are the unique roots of x^2-(rank)x+(h/2)=x^2-8x+15, sum=rank E8=8 + product=h/2=15=g_car*N_fam; mapped degrees {2,8,30}=min/rank/max -- a consolidation respecting the v354/v355 discipline, no new per-degree mining) -- 3 checks; the 2026-06-30 rigidity-forcing round adds v445 SEAM.RIGIDITY.FORCING.01 (the converse of v442: (i) entrywise forcing [rho,E_ab]=(i^a-i^b)E_ab=0 IFF a==b mod 4, verified all a,b in 0..31, residue-only => uniform in N; (ii) exact commutant dim sum n_s^2=4*4^2=64 PROPER subspace of N^2=256; (iii) the order is the discriminator, order-2 commutant 128 strictly larger than order-4 64, swept N=4..64, four marks |mu4|=4=h(A3), only index-4 is (E8)_1 det 1 vs SO(16) det 4) -- 3 checks (also Lean-hardened, FORM.SEAM.RIGIDITY.FORCING.01); the 2026-06-30 edge-CFT/modular round adds v452 SEAM.EQUIV.E8.MODULAR.01 (the (E8)_1 torus modular data: (i) S-invariance chi(-1/tau)=chi(tau) for chi=E4/eta^8 (one primary); (ii) T-phase chi(tau+1)/chi(tau)=e^{-2pi i/3}=e^{-2pi i c/24}, c=8; (iii) leading power chi*q^{1/3}->1 => c=8; (iv) holomorphic c=8=0 mod 8 + T-phase order 24/gcd(8,24)=3 -- E4 via its q-series since EisensteinE stays symbolic) -- 4 checks, v450 SEAM.EQUIV.EDGE.ENTANGLEMENT.01 (Calabrese-Cardy c per Majorana=1/2, N_Maj=16, c_-=8) -- 1 check, v451 SEAM.EQUIV.EDGE.CARDY.01 (the edge is Ising M(3,4): c=1/2, Kac h_sigma=1/16, h_epsilon=1/2) -- 1 check, v453 SEAM.RIGIDITY.MU4FROMMARKS.01 (the marks ARE mu4=roots of z^4-1, the form basis omega_k is mu4-graded, cross-ratio 2 fixed by z->iz => QGEO.SYM.01 from marks=mu4 + QGEO.REALIZE.01) -- 3 checks (also Lean-hardened, FORM.SEAM.EDGE.CHERN.01); the 2026-06-30 G-block round (post-F next-options) adds v454 SEAM.EQUIV.EDGE.VIRASORO.01 (level-1 Sugawara c=dim G/(1+h^v)=8 for BOTH SO(16)_1 120/15 and (E8)_1 248/31; the Casimir and Kac-Moody <J_n J_-n>=n fits Python-only) -- 1 check, v456 SEAM.S3.FROM-P1.01 (c3's '8'=one-sided count |Z2|*(intK/pi)=2*4; a reflection sends C->-C so two-sided forces C=0, one-sided allows C!=0; Chern computation Python-only) -- 1 check, v457 SEAM.EQUIV.KILLTEST.01 (the (E8)_1 character tower {1,248,4124,34752} from E4/eta^8; kill-test discriminators 248=dim E8=120+128, |det Cartan E8|=1 one sector vs |det Cartan D8|=4 four sectors) -- 2 checks, v459 SEAM.EQUIV.LATTICEVOA.01 (E8 even unimodular det 1; the 240 roots split 112 integer + 128 spinor; 248=8+240=120+128 -- the lattice route supplies the 128-spinor MMST v458 leaves open) -- 2 checks (v455 uniform Tomita-Takesaki tower + v458 MMST citation audit are Python-only/structural); the 2026-06-30 v461/v462 round adds v461 SEAM.S3.LOCALITY.01 (the Kapustin-Fidkowski strict-locality obstruction as integer logic: winding=|C|=1!=0 and c_-=8!=0, a strict finite-range commuting projector would force winding 0 => C=-C => C=0 so it is forbidden; the Wilson-loop winding/Chern are numerical, Python-only) -- 1 check, and v462 SEAM.EQUIV.SPINOR.01 (the Jacobi/E8 theta identity theta2^8+theta3^8+theta4^8=2E4 so chi_{(E8)_1}=E4/eta^8=chi_o^{SO16}+chi_s^{SO16}, and the (E8)_1 weight-1 248=120+128 with finite 16-Majorana Fock counts C(16,2)=120, 2^{16/2}=256=128+128; the finite-L convergence Python-only) -- 2 checks; the 2026-06-30 v463/v464 round adds v463 SEAM.EQUIV.UNIQ.01 (the c=8 holomorphic-uniqueness pin: c=8 has THREE level-1 candidates A8/80, D8/120, E8/248 all dim=8*(1+h^v), holomorphy forces dim V_1 = E4/eta^8 q^1 coeff = 248 = E8 excluding A8/D8; tower {1,248,4124,34752,213126}=E4/eta^8) -- 2 checks (v464 the one-particle realization rigidity is numerical, Python-only); the 2026-07-13 entropic-action bridge round adds v473 GRAV.ENTROPIC.ACTION.01 (the carrier Hodge count 1+5+10=16=2^(g_car-1) vs the 4d fiber 11 + the coefficient pin beta'_B=c3/6=1/(48 pi); the entropy potential s(x)=x-1-ln x with the Lambda-channel target Tr Q^2=32 c3^4=1/(128 pi^4)=(2/3) delta_top; the R^2 kill-test gap 3 c3^-9=3(8 pi)^9~1.2e13) -- 3 checks (the Frullani quadrature is numerical, Python-only, flagged in the .wl comment); the 2026-07-13 operator-level follow-up adds v474 GRAV.ENTROPIC.HODGE.01 (the Q-target enumeration d k^2 = 32 with integer k => supports exactly {(2,4),(8,2),(32,1)} = {|Z2|, rank E8, 2^g_car}, the 10/16 blocks excluded, minimal uniform q = c3^2 = 1/(64 pi^2), mode-ratio 32/48 = 2/3; and the fold-is-conjugation weight identity: traceless u(5) weights of Lambda^4 = negatives of Lambda^1, 5 -> 5bar, Pascal blocks {1,5,10} vs {1,10,5}) -- 2 checks (the 32x32 Fock/Clifford matrix checks are Python-only by the matrix-construction convention, flagged in the .wl comment); the 2026-07-13 kill-test round adds v475 GRAV.ENTROPIC.SCALARON.01 (the max-symmetric eigenvalues {R, R/4 x4, R/6 x6} of R~ g~^-1 incl. the 6x6 two-form flattening; the exact vacuum f(R) = 3 b R + (17/24) b^2 R^2 with the raw scalaron m^2 = 4608 pi^2/17 Mbar^2 (trans-Planckian ~51.7 Mbar), enhancement exactly (72/17)(8 pi)^9, domain pole 384 pi^2 Mbar^2; the Lorentzian timelike witness {1 - alpha v^2,1,1,1} vs spacelike {1 + alpha v^2,1,1,1}) -- 3 checks, all exact; the 2026-07-13 scale-flow round adds v477 GRAV.ENTROPIC.SCALEFLOW.01 (the Frullani/scale-flow identity -ln a = int dt/t (e^{-ta}-e^{-t}) symbolic + the moment dictionary at the flat weight = the v475 raw coefficients 3 b R + (17/24) b^2 R^2; the ONE moment condition mu2/mu1^2 = (72/17)(8 pi)^9 with the exact closure (4608 pi^2/17)/((72/17)(8 pi)^9) = c3^7 and the v36 consistency f0 = 6(4 pi)^2/c3^7) -- 2 checks (the chi-form quadrature is numerical, Python-only, flagged in the .wl comment); current total 603/603 (verified engine run 2026-07-24, Wolfram Engine 14.3: the 16 deferred mirrors v479 (2) + v491 (3) + v493 (4) + v495 (3) + v496 (4) counted with the 2026-07-21 reactivation run, 378 -> 394; same-day v497 +4 -> 398, v498 +5 -> 403, v499 +5 -> 408, v500 +4 -> 412 and v501 +4 -> 416; same-day v502 +4 -> 420, v503 +4 -> 424, v504 +5 -> 429, v505 +5 -> 434, v506 +4 -> 438, v507 +6 -> 444, v508 +6 -> 450, v509 +7 -> 457, v510 +6 -> 463 and v511 +7 -> 470; 2026-07-22 v512 +6 -> 476, v513 +6 -> 482, v514 +8 -> 490 and v515 +8 -> 498, v516/v517/v518 -> 516, v519 -> 522, v520/v521/v522 -> 540; 2026-07-23 v523 +5 -> 545, v524 +4 -> 549 and v525/v526/v527/v528/v529 +3 -> 564), ALL WOLFRAM EXTENSION CHECKS PASSED. Kept separate from the 116/116 base file (GATE.WOLFRAM.01 unaffected). scipy-only parts (v86 pivot ODE, v88 data pulls, v93 PDG pole numerics) stay Python-only, flagged in the .wl comments; the statistical v100 numerology null test (grammar census + MC + RNG controls) is likewise Python-only by convention (like v62/v64/v65), flagged in the .wl comment. UPDATE 2026-07-20 (v491/P2.PARTITION.01): THREE exact mirrors of the partition corollary (unique {1,1,2} => e = (4,5,2); the four negative controls incl. the MS-rational 16/3 and 44/9; the v53 sharpening + sum rule) ADDED to the extension file; the VERIFIED count stays 378/378 -- the local engine is currently unactivated (license), so the new checks enter the counted total with the next verified engine run (same convention as the v479 mirrors); the identical statements are sympy-exact in Python (v491). The 2026-07-20 numerical companions v489 (modular commutator) and v490 (parity census) are numpy/scipy, Python-only by the suite convention, flagged in the README. The 2026-07-20 celestial round: v492 (CELEST.WP1.01) sympy-exact, mirrorable in principle, deferred to the same next engine run (docstring flag); v493 (CELEST.WP2.01) FOUR exact mirrors ADDED to the extension file (sharp clock-invariant selection + frozen j = 1728 quartic invariants + Coxeter/Picard-Lefschetz monodromy with the chi_1 eigenline and regular versal weights + linear-in-a0 S-algebra wrap with the EH k = 2 analogue), same convention -- counted only with the next verified engine run; identical statements sympy-exact in Python (v493); the 2026-07-21 celestial WP3/WP4 round: v495 (CELEST.WP3.01) THREE exact mirrors ADDED (the Deligne closed form lambda~^2 = h_vee + 6 with dimension formula and fundamental-index values; the E8 alignment (kappa/c3)^2 = 12 resp. 1/300 with irrational kappa/c3, anchors and the so8 factor-2 slip; the look-elsewhere pass counts 8/8 / 2/8 / 1/8 / 4/8 / 5/8 + exponents = totatives of 30) and v496 (CELEST.WP4.01) FOUR exact mirrors ADDED (the E4/eta^8 character through q^6 + q j cross-check; the equivariant Hilbert series with quadratic cumulative count and SU(2)+ slice; the two-sided jet-Fock mismatch with strictly increasing f_n/chi_n and the 27000 = h_vee^3 null ideal; the boundary bridges period sum 248 / no tower dimension / loop Fock 897266), same convention -- counted only with the next verified engine run; identical statements exact in Python (v495/v496). UPDATE 2026-07-21: the engine license is REACTIVATED and the run is VERIFIED -- base 116/116 ALL WOLFRAM CHECKS PASSED + extension 394/394 ALL WOLFRAM EXTENSION CHECKS PASSED (Wolfram Engine 14.3); all 16 deferred mirrors (v479 2 + v491 3 + v493 4 + v495 3 + v496 4) now enter the counted total, 378 -> 394; v484/v485/v486/v487/v488/v492 stay mirrorable-but-unmirrored (Python-exact), so they are not counted. UPDATE 2026-07-21 (v497/CELEST.WP5A.01): FOUR exact mirrors of the WP5a null-ideal round ADDED and VERIFIED the same day with the active engine, 394 -> 398 -- (i) the chi_w stabilisation family (u^n coefficient = quarter-moded loop Fock for all w >= n+1, strictly larger for w <= n; w = 2 = the chiral jet grading; loop Fock 897266 at u^4); (ii) the null ideal DERIVED via the Weyl dimension formula in the standard E8 frame (27000 = 30^3 = h_vee^3, 3875, Sym^2 count 30876; Casimirs (60,124,96), Dynkin indices 6750/750; level-1 integrability 4/2; quotient 31124 - 27000 = 4124); (iii) the two-route sector sum at q^2 = (1036,1024,1040,1024) = 4124 with glue diagonal (0,1,1,1); (iv) the SO(16)_1 / false-periodisation / swapped-glue negative controls (5304 != 14^3, 2076 = Theta_D8/eta^8, weights (0,1/2,1,1), period sums 64/124/248/496). The Freudenthal/peeling residual-zero recursion stays Python-side in v497; counting convention honoured -- counted only after the successful engine run (engine active). UPDATE 2026-07-21 (v498/CELEST.WP5B.01): FIVE exact mirrors of the WP5b singular-vector round ADDED and VERIFIED the same day with the active engine, 398 -> 403 -- (i) the case classification of the J^a_1 condition over the 248-element basis from the standard E8 root data (tally (190, 57, 1), exactly one case sees k; theta-grading dims (1,56,134,56,1); a + 2 theta re-enters for exactly one root a = -theta); (ii) the level dial DERIVED from the affine sl2 commutation (F^theta_1 (E^theta_{-1})^n|0> = n(k-n+1)(E_{-1})^{n-1}|0>; square coefficient 2(k-1) = -2(1-k) with values (-2,0,2) at k = 0,1,2; Shapovalov 2k(k-1) = 0/4 at k = 1/2; cube singular exactly at k = 2); (iii) the mu4 glue data (240 glue roots, classes (52,64,60,64), inner grading on all 240, <theta,h> = 5 => j(theta) = 1, clock phase i^2 = -1, cross-table rows (1,56,126,56,1)); (iv) the 27000 match + comark discriminator (mult(2 theta) = 1 in the level-2 Fock, 27000 = 30^3, (2 theta,2 theta)/2 = 4 > 2, E8 comarks (2,2,3,3,4,4,5,6) vs D8 (1,1,1,2,2,2,2,2) with h = (1/2,1,1), 5304 != 14^3); (v) the twisted-slot tension (no two C_1 modes sum to 8 quarters, minimum 6 = q^(3/2); per-period 248). The Chevalley/Frenkel-Kac construction and the PBW singularity run stay Python-side in v498; counting convention honoured (engine active). UPDATE 2026-07-21 (v499/P2.TYPING.01): FIVE exact mirrors of the P2 weight-typing round ADDED and VERIFIED the same day with the active engine, 403 -> 408 -- (i) the partition enumeration under the full typing (unique {1,1,2}, e2 = 5; BG dictionary h^0 = 0 <=> a_i >= 1 exhaustive; the naive-typing negative control h^1(E') = 3 => deg -6 with three splittings, e2 never 5; the h^1 discrepancy h^1(anchor bundle) = 1 != 3); (ii) the Deligne residue-trace degree (cusp exponents {0,1/3,2/3} = unique lift of spec(lam^3-1) to [0,1), trace 1 per mark, deg E = -4, par-deg 0, witness A0* char poly lam(lam-1/3)(lam-2/3)); (iii) the Schur-Horn permutohedron integer points {(2,2,0),(2,1,1)} with h^0 = 0 killing {2,2,0}; (iv) the Biswas Z3-cover degree arithmetic (genus 2, eigensheaves O(-2)^2, chi cross-check -1 = -1, regular-rep weights, decomposable model {0,2,2} with h^0 = 1 = the unstable companion; deck double genus 1, j = 1728); (v) the n-mark formula e2 = (n-2)(n+1)/2 = 5 only at n = 4. The sympy symbolic parts (H^1 residue basis, monodromy group closure |<U,M0>| = 24, the 324-case stability skeleton) stay Python-side in v499; counting convention honoured (engine active); counting convention honoured (engine active). UPDATE 2026-07-21 (v500/CELEST.WP5C.01 + v501/CELEST.WP5D.01): FOUR exact mirrors of the WP5c GNS-limit-state round and FOUR of the WP5d-alpha two-interval-index round ADDED and VERIFIED the same day with the active engine, 408 -> 416 -- v500: (i) the level-2 block census from the E8 root data (31124 = 248 + 30876 monomials in 9361 weight blocks, dim profile {164:1, 37:240, 7:2160, 1:6960}, orbit census (240, 6720, 2160, 240, 1)); (ii) the rank/kernel arithmetic (rank table (0,0,1,8,44) -> total 4124 = 1 + 248 + 3875 = chi_2 with dim V(omega) = 3875 by Weyl; kernel (1,1,6,29,120) -> 27000 = 30^3 = dim V(2 theta)); (iii) the clock-class split at the state level (glue-frame census -> (1036,1024,1040,1024) = Theta_Cj/eta^8 at q^2, level 1 (60,64,60,64)); (iv) threshold w r >= N+1 iff w >= N+1 sharp at w = N, <s|s> = 2k(k-1), D8 census 7380 in 2705 blocks quotient 2076; the exact 9361-block Gram/PSD/h.w.-norm computations stay Python-side in v500 -- v501: (i) the Cartan determinants (det D5 = det A3 = 4, product 16; det D8 = 4; det E8 = 1, explicit matrices); (ii) the KLM/Longo-Rehren quotients 16/4^2 = 1 and 16/2^2 = 4 -> 4/2^2 = 1 (both routes exact); (iii) the Sigma d^2 cross-checks (Ising 4, SO(16)_1 4, (E8)_1 1) + the index-reading arithmetic ([F:F_even] = 2, mu_gauged = 4, 16 ln 2 = ln 2^16, budget ln 4); (iv) the 16-fold-way condensability theta_v = 1 exactly at nu = 2 c_- = 16 vs rivals nu = 1, 2, 8; the lattice curves (Peschel/Renyi offsets, ln 2 plateau, duality asymmetry, ED validations) stay Python-only in v501; counting convention honoured (engine active) UPDATE 2026-07-21 (v502/CELEST.WP5E.ALPHA.01 + v503/QGEO.EMERGE.LIGHT.01): FOUR exact mirrors of the WP5e-alpha prefactor-and-level round and FOUR of the QGEO-emergence-light round ADDED and VERIFIED the same day with the active engine, 416 -> 424 -- v502: (i) the Hurwitz-zeta vacuum energies (zeta(-1,theta) = -B2(theta)/2 at rational twists, E_b = -1/24 + theta(1-theta)/4, Ising shift 1/16, vacuum 8(-1/24) = -1/3 = -c/24 with Sugawara 248/31 = 8, eta^8 exponent 8/24 = 1/3); (ii) discriminant form = Casimir (exact coset minima (0,5/8,1/2,5/8)/(0,3/8,1/2,3/8)/glue (0,1,1,1); spectral flow j^2(h,h)/32 with (h,h) = 20, (h',h') = 12, sum 32; free fermions n/16 on 10+6 = 16 = 2^(g_car-1) Majoranas; deck failure 3/16 != 3/8); (iii) the k = 1 fixing equations (closed forms 5k/8, 3k/8; glue integrality for ALL k = 1..8 -- the honest 'fixes nothing' finding; current condition h(J) = k = 1; embedding (k-1)(47k+266) and 128k(1-k); central charge 240(k-1) = 0; Shapovalov 2k(k-1) = (0,4,12,24); Weyl dims 248/3875/27000, 31124 - 27000 = 4124); (iv) the character sums (four glue-coset thetas = E4 = (1,240,2160,6720); sector characters (1,64,60,64)/(60,64,60,64) sum to q^(-1/3)(1,248,4124,34752); D8 control Theta_D8 + Theta_s = E4 with h_v = 1/2); the sympy symbolics and the PBW engine stay Python-side in v502 -- v503: (i) the CM-point identities (q-series E2 = 3/Pi at i and 2 Sqrt 3/Pi at rho to 30 digits => E2*(i) = E2*(rho) = 0 exactly; j(i) = 1728, j(rho) = 0 KleinInvariantJ; DedekindEta[I] = Gamma(1/4)/(2 Pi^(3/4)) exact); (ii) the no-dynamical-selection witnesses (logF S-invariant, hexagonal winner logF(rho) - logF(i) = 0.02116..., saddle signature of tau = i); (iii) the pillowcase halving (exact N = 8 spectrum, 3 nonzero self-paired cone modes + 30 pairs, dim(even) = 34 = (N^2+4)/2, det'_even^2 = det'_torus x prod_self exactly); (iv) clock => square + Coxeter (SolveAlways a3 = a2 = a1 = 0, j = 1728 identically, charpoly lam^3+lam^2+lam+1 order 4 = |mu4| = N_fam + 1, Aut(hexagonal) = Z6 without order-4 element); the lattice DtN curves stay Python-only in v503; counting convention honoured (engine active) UPDATE 2026-07-21 (v504/CELEST.WP5DB.01): FIVE exact mirrors of the WP5d-beta split-plus-strong-additivity round ADDED and VERIFIED the same day with the active engine, 424 -> 429 -- (i) the GF2 span theorem (Majorana monomials multiply as GF(2) labels: shared boundary Majorana => Even(A) v Even(B) = Even(A u B) exactly 64/64, 256/256, 1024/1024; disjoint exactly half = index 2); (ii) the Pimsner-Popa identity + attainment (E(a) - a/2 = PaP/2 identically on a symbolic 4x4 matrix; explicit gamma matrices give E(x*x) - lam x*x = 2(1-lam) - 2 lam h with spec(h) = +-1 => lambda_PP = 1/2 = 1/[F:F_even] exactly); (iii) the two-interval group + index consistency (E4(vv+) = I/4 exactly => lambda_E4 = 1/4 = 1/mu; (1/lambda_PP)^2 = 4 = 1/lambda_E4 = mu(SO(16)_1) = det Cartan(D8)); (iv) the Lambda^2 compound (Minors[.,2]: Cauchy-Binet functoriality, diagonal products {sigma_a sigma_b}, Minors[-C,2] = Minors[C,2] identically -- the exact orbifold split-inheritance mechanism); (v) the U(1) PP control (charge dephasing lambda = 1/(m+1) -> 0 exactly: infinite index). The lattice curves (deficit tables, Ising exponent p = 0.2444, elliptic-nome ladder, Klich-Levitov slope, ED validations) stay Python-only in v504; counting convention honoured (engine active) UPDATE 2026-07-21 (v505/CELEST.WP5E.BETA.01 + v506/SEAM.CLOCK.RIGIDITY.01): NINE exact mirrors ADDED and VERIFIED the same day with the active engine, 429 -> 438 -- the v505 WP5e-beta round (FIVE): (i) the AB denominators + equivariant characters (det(1-g_j^-1) = (2,4,2), Dedekind sum 5/4 = (|Z4|^2-1)/12; characters (248,0,-8,0) by TWO routes -- graded dims and the explicit 240-root sum; invariant average 60 = carrier, Frobenius 61568); (ii) the index bridge (ch2(T_m) = -(C^-1)_mm/2 = f(m) exactly; glue defect -78 both routes, classes (-24,-30,-24); sum_m h_A3(m) = 5/4 = sum_j 1/det_j); (iii) Okubo per sector + the rigid 32 T3 residual (the invariant quartic sum over the 240 glue roots = 36<x,x>^2 exactly; twisted quartics carry T5/T3 content; AB-weighted sum = 9P1 - 30P2 - 15P3 + 32T3 exactly); (iv) the level dials (lattice current count 240/0/0/0 for k = 1..4; embedding residual (0,360,814,1362); det(A-1) = -4); (v) the axion-slot weight arithmetic (clock weights = regular mu4 rep; a0 Hamiltonian in O(2) = the graviton slot, X = -2 != +2 = Y, mismatch 4 = |mu4|; Coxeter eigencharacters {i,-1,-i} = the three twisted slots); and the v506 clock-rigidity round (FOUR): (i) the complete square-root solve (g^2 = deck forces diagonal with (a/d)^2 = -1 -- exactly two roots z -> +-iz, both projective order 4; the traceless branch scalar with det 0); (ii) the D4 center + order-4 count + the silver counterexample (the mu4 stabiliser has profile {1,2,2,2,2,2,4,4}, exactly 2 order-4 elements squaring to the deck, center = {id, deck}; the silver set {+-1, +-(3+2 sqrt 2)} has j = 1728 with a full D4 of 8 exact elements but its order-4 elements square to the central crossing involution, not the deck: zero roots); (iii) the Cl(16) identity (explicit 256x256 Jordan-Wigner gammas: Utilde^2 = 256 gamma_1...gamma_16 exactly, U^2 = (-1)^F; the R implementer squares to +256, split control); (iv) the n-arithmetic + generic kill (S4 orders {1,2,3,4}, kill table n = 5..8, free orbits n | 4, cusp degree 5 != 3, transfer spectrum {1, 64/729, 1/729}, generic V4 exponent 2). The 24-triple stabiliser enumeration, the A4 profile and the Z8 block-lift nullspace stay Python-only in v506; counting convention honoured (engine active) UPDATE 2026-07-21 (v507/SEAM.BIT.ORIGIN.01): SIX exact mirrors of the bit-origin round ADDED and VERIFIED the same day with the active engine, 438 -> 444 -- (i) the half-period descent (fixed points of w -> -w = the 4 half-periods Lambda/2Lambda, 1/3-control fails; t_c descends iff 2c in Lambda = exactly the 3 nonzero half-periods; the explicit rational descent sigma_i(x) = e_i + (e_i-e_j)(e_i-e_k)/(x-e_i) with the exact curve-lift identity prod(sigma_i-e_l) = psi_i^2 prod(x-e_l) symbolic in e1,e2,e3 and the Klein-V4 closure); (ii) the core solve (pair cross-ratio = -1 solves exactly to lambda = -1/2/1-half per half-period; harmonic orbit j = 1728 vs j(3) = 21952/9 and j(hex) = 0); (iii) the stabiliser counts (complete 24-triple enumeration: (4,3,3)/(8,5,3)/(12,3,3), free involutions = the three sigma_c in ALL types); (iv) the CM fixed point (mult-by-i mod 2 fixes exactly (1,1) = c*, mult-by-rho 3-cycles; the lemniscatic clock lift needs psi = 2i/(x+1)^2 with t^2+1 irreducible over Q and squares to the central -1/x); (v) the Cl(16) dichotomy (central Utilde^2 = 256 gamma_1...gamma_16 vs the edge implementer squaring to the SCALAR +2^7 on the same 256x256 Jordan-Wigner gammas, with implementation verified on all 16 generators; root count 2 vs 0 in the 32-element NS dihedral lift group); (vi) the silver bijection census (all 8 silver bijections -> edge sigma_2/sigma_3, never central; all 8 mu4 bijections -> central sigma_1 only). The v493 circularity-audit direction and the 28/21 arrangement census stay Python-side in v507; counting convention honoured (engine active) UPDATE 2026-07-21 (v508/CELEST.WP5E.GAMMA.01): SIX exact mirrors of the WP5e-gamma round ADDED and VERIFIED the same day with the active engine, 444 -> 450 -- (i) the vertex-space dims (the W(D5) x W(A3)-invariant quadratics on the 8-dim glue Cartan have bidegree dims (1,0,1), total 2 = span{s5, s3}, and the quartics (2,0,1,0,2), total 5 = span{P1,P2,P3,T5,T3} -- exact generator-wise Weyl nullspace arithmetic); (ii) the twisted quadratics + the even-sector collapse (K^(0) = 60(s5+s3), K^(1) = K^(3) = 4s5-12s3, K^(2) = -4(s5+s3), K^(0) = -15 K^(2) parallel); (iii) the product theorem (symbolic a,b,c,d: any two invariant quadratics multiply into span{P1,P2,P3} -- zero T5/T3 content); (iv) the rank-3 certificate (channels E13 = (16,-96,144,0,0), E22 = (16,32,16,0,0), E00 = 225 E22; rank 2, kernel 0, rank([M | A_fix]) = 3 with A_fix = (9,-30,-15,0,32) and (Phi_T5, Phi_T3, Phi_P)(A_fix) = (0, 32, 72); naturalness images (25/4,-11/2,97/4,0,0)/(12,-40,76,0,0) both certify (0,0)); (v) the SO(16) AB sum (15,-18,-15,-4,40); (vi) the D8 native quartic 28 s8 Killing + 16 T8 + 12 s8^2. The selection-rule triple enumeration and the flipped-rule control stay Python-only in v508; counting convention honoured (engine active) UPDATE 2026-07-21 (v509/CELEST.WP5E.EPS2.01): SEVEN exact mirrors of the WP5e-epsilon-2 round ADDED and VERIFIED the same day with the active engine, 450 -> 457 -- (i) the CPS period integrals (S^3 period of the brane back-reaction 3-form = (2 pi i)^2 exactly, pullback density -sin 2theta; exceptional-sphere Kahler flux = 2 pi N exactly, flat part dies at t -> 0); (ii) the level~flux contraction (+2N/-2N for N = 1,2,3) with Dynkin T(so8 vector) = 1, T(adj) = 6; (iii) the pairing-matrix enumeration 48 -> 2 (rows (8,6,8), 48 unimodular, effectivity cuts to {identity, flip}); (iv) the three fluxes (64,60,64) = dim g_i, total 188, flip-invariant, per-current (1,1,1); (v) the sector-counter dial #prim((E8)_k) = (1,3,5,10,15,27) for k = 1..6, one sector iff k = 1, KLM 16/4^2 = 1; (vi) the lockstep theorem + the 0/24 negative probe (a3 = a2 = a1 = 0 forced, squared moduli 2t^2 equal, det(A-1) = -4, Z^4 - Z disc -27 with zero lockstep orderings); (vii) the negative controls (SO(16) fluxes (0,60,0) with defect -30 and condensation stuck at 4; A2 det 3, glue diagonal 23/24, mu = 12 no square, Coxeter 3 != 4). The lattice current count (240,0,0,0) and the k = 2 dials are already mirrored in the v505 round; counting convention honoured (engine active) UPDATE 2026-07-21 (v510/SEAM.BIT.FREEDOM.01): SIX exact mirrors of the seam-bit-freedom round ADDED and VERIFIED the same day with the active engine, 457 -> 463 -- (i) the dihedral census + quotient topology (D_16: 17 involutions, exactly 1 free = the antipodal shift 8; all 16 reflections with exactly 2 circle fixed points, 8 site- + 8 edge-axis; robustness N = 8, 12; odd control N = 9 zero free; chi(circle/antipode) = 0 closed vs chi(circle/reflection) = 1 interval with 2 corners); (ii) the Aut completeness (Aut(C_8) = D_8 by brute force over all 8! = 40320 permutations; Aut(C_16) = D_16 by degree-2 propagation, all 32 candidates); (iii) the Cl(16) dichotomy census (the free deck's NS implementer squares to 256 gamma_1...gamma_16 = 256 (-1)^F nonsplit while the implementers of ALL 16 reflections exist and square to scalars {2^7, 2^8} -- NONSPLIT <=> FREE over the complete 17-involution census; root dichotomy 2 vs 0 total on explicit 256x256 Jordan-Wigner gammas); (iv) the real-structure table (M D = +-D M solves symbolically to the diagonal/antidiagonal families; per configuration mu4 -> equatorial/FREE, silver -> real-axis/NOT free, generic-real -> real-axis, generic-unit -> equatorial/free, hexagonal -> NO mark-fixing real structure); (v) harmonic + free => mu4 ((1-b)^2/(1+b)^2 = -1 solves exactly to b = +-i; lambda table (2, 1/2, 3/4, 5/4) real, hexagonal Im lambda = sqrt(3)/2); (vi) the honest counterwitnesses ({0,1,8,9} shift-invariant + crossing but not quarter-shift-invariant; {+-1, +-(3+4i)/5} with pair cross-ratio -1/4, j = 148176/25, clock not preserving). The Moebius/Klein covering models and the pillowcase branch control stay Python-side in v510; counting convention honoured (engine active) UPDATE 2026-07-21 (v511/CELEST.WP5E.DELTA2.01): SEVEN exact mirrors of the WP5e-delta-2 full-tensor-ledger round ADDED and VERIFIED the same day with the active engine, 463 -> 470 -- (i) the innerness count + g0 structure (240 glue roots, class split (52, 64, 60, 64); h = (2,2,2,2,2;0^4) and h' = (0^5;1,1,1,-3) read the class mod 4 on all 240 roots; class-0 roots split 40 pure D5 + 12 pure A3, no mixed root, root span rank 8 -- g0 = d5 (+) a3 semisimple, no u(1); class(-alpha) = -class(alpha)); (ii) the bilinear Hom table by exact Kostant alternating sums on the minuscule weight orbits (nonzero ONLY at j' = -j, dims (2, 1, 1, 1), all 12 charged pairs zero); (iii) the trilinear Hom table (all 15 non-neutral triples zero, neutral dims (3, 2, 2, 1, 1)); (iv) the unique symmetric survivor (Inv(S^3 adj) = (0, 1) for (d5, a3), Inv(L^3 adj) = (1, 1), Inv(S^2 adj) = (1, 1); Inv(S^3 g0) = 1, Inv(L^3 g0) = 2 -- the su(4) d-symbol; dual guard 4 x 4 = 0 vs 4 x 4bar = 1); (v) the controls (SO(16)/D8 bilinears (1, 0, 1), trilinears (1, 0, 1, 0), Inv(S^3 adj_d8) = 0, Inv(L^3 adj_d8) = 1; false g0 = d5+a2+u(1): (5, 2, 2) != (2, 1, 1), Inv(S^3 g0) = 6 != 1; false sector (16_s, 4bar): both pairings 0 vs true value 1); (vi) Q_dd by two routes (explicit su(4) matrices: brackets/root-contractions/tadpoles all 0; Q_dd = (0, 0, -1/240, 0, 1/60) = (1/60)(T3 - P3/4) agreeing with the hand route |x^2 - (tr x^2/4) 1|^2/60; Tr X^3 = 0 antisymmetric); (vii) the psi certificate + the relaxed solution (E13/E22/E00/A_fix replicated; rank 3 vs augmented 4; psi = Phi_P - Phi_T3/4 annihilates all four channels, psi(A_fix) = 72 - 8 = 64; relaxed A_fix = -u + 8v + 2w + 1920 Q_dd exactly, 1920 = |W(D5)| = 8 x 240). All v511 content is exact and fully mirrored; counting convention honoured (engine active) UPDATE 2026-07-22 (v512/SEAM.TAU.FLAG.01 + v513/CELEST.DTERM.NONDERIV.01): SIX exact mirrors of the flag-transitivity round ADDED and VERIFIED the same day with the active engine, 470 -> 476 -- (i) the V4/D4 census table over five exact members incl. flag/arc orbit counts (generic (4, 2, transitive, 2, 2), mu4 (8, 4, transitive, 1, 1)); (ii) the solveset equivalences (b^2 = -1 / cos delta = 0 / tan(delta/2) = 1 / delta = pi - delta all reduce to {pi/2}) + family identities (lambda = sec^2(delta/2), cross-ratio = -tan^2(delta/2); counterwitness lambda = 5/4, j = 148176/25, cross-ratio -1/4); (iii) the spectral faces in closed form (odd-split exp(pi split/2) = cot(delta/2), arc-Laplacian spectrum, K3 Frobenius^2 = 8(u-v)^2); (iv) the twist mode identity + AB delta-blindness + j-rationality control; (v) H4 rigidity (centraliser scalar, intertwiner prop U, U^2 nonscalar, V4 orders {1,2,2,2}); (vi) the negative controls (hexagonal/silver/Z16 0-vs-28 census/n = 3 rigidity) -- the mpmath heat-trace numerics and the numpy lattice commutator stay Python-only in v512, flagged; and SIX exact mirrors of the c_d-nonderivation round ADDED and VERIFIED the same day, 476 -> 482 -- (i) the propagator anchor sum <alpha,e>^2 = 120 + T3-slot pinning (det -64, c_d = 1920); (ii) the five-way convention table (1920, 120, 256, 32, 69120) with exactly one |W(D5)| hit + the stable factorisation c_d Phi_T3(Q) = 32 in all five; (iii) the flux enumeration (2048/1800 bracket-and-miss, 64*60/2 charge-forbidden) + look-elsewhere ledger (924 expressions, 11 hits on 1920; controls 8/0/5); (iv) the K2 lattices (quantum 6 vs 3/8, 60 Z 32nd multiple, 2160 Z excludes, 12 factorisations); (v) the K3 provenance clash (A_m = (0,16,0,-16), 32i vs (10,-4,30,-4); |W(D5)| = |W(E8)|/|W(A8)| = 1920, |W(A3)| = 24); (vi) the K4 controls (SO(16) cubic sums 0, k = 2 doubling 7680, false g0 six cubics). All exact content of both rounds fully mirrored; counting convention honoured (engine active) UPDATE 2026-07-22 (v514/CELEST.WP5E.EPS1.01): EIGHT exact mirrors of the WP5e-epsilon-1 bulk-axion-slot round ADDED and VERIFIED the same day with the active engine, 482 -> 490 -- (i) the equivariant Penrose ledger (pushforward blocks = exact wave-operator kernels block by block, all d <= 6, all four characters, (d+1)^2 per degree); (ii) the character series P_0 = 1 + 3t^2 + 15t^4 + 21t^6 + 45t^8, P_1 = P_3 = 2t + 8t^3 + 18t^5, P_2 = 6t^2 + 10t^4 + 28t^6 with the surviving bulk-axion zero mode (1,0,0,0), density 1/2 = (1/4) x 2 and twisted minimal content (2t, 6t^2, 2t); (iii) the Molien hypersurface (1-t^8)/((1-t^4)^2(1-t^2)) with relation degree 8 = the a0 weight + the diag(i,i) Veronese control (1+3t^4)/(1-t^4)^2 and the Coxeter clock det(A-1) = -4; (iv) the Okubo residue (6<x,x>)^2 on the 240 glue roots + the so8 irrationality control (perfect squares {9, 36} only); (v) the measure cancellation (lam_eff^2 = 36 for arbitrary mu, wrong bookings 9 and 144 excluded) + the flux dial (#primaries (1,3,5,10), (kappa/c3)^2 = 12); (vi) the GH centre dichotomy re-deriving the v493 family (prod(Z - i^p z0) = Z^4 - z0^4, monodromy = one clock step); (vii) the period lockstep 4 pi t0 (i-1)(1, i, i^2) + the GH point = R^4/Z_k cone + the Coxeter clock Pi.A = i Pi from geometry; (viii) the multipole selection rule m = 0 mod 4 with the (4, +-4) amplitude (35/16) sin^4 th + the EH log ledger (det g = 1 exact, asymptotic log coefficient 0, exceptional flux 2 pi a^2, Burns contrast det g = 1 + N/u). All exact v514 content fully mirrored; counting convention honoured (engine active) UPDATE 2026-07-22 (v515/CELEST.WP5E.M1.01): EIGHT exact mirrors of the WP5e-M1 back-reacted-Omega_N round ADDED and VERIFIED the same day with the active engine, 490 -> 498 -- (i) the residue-form identities (invariant-cover pullback 4 dz1^dz2 = |mu4| x flat, deck-invariant, clock phase i; weight ledger 4+4+2-8 = 2, Omega in O(4) = -deg K_PT; EH anchor 2 = |Z2|; wrong-weight control 4 != 2); (ii) the twistor family closed (O(2) reality of the four centre sections, XY = Z^4 + 4 t0^2 la^2 Z^2 - t0^4 (1 - la^4)^2 exactly, seam fibre = the v493 family, self-mirror, CY-compatible clock lift gamma^4 = 1 with Omega -> +Omega); (iii) the period reduction + lockstep (2 pi i (q_b - q_a) generic, seam vector 2 pi i t0 (i-1)(1, i, i^2) with equal squared moduli 8 pi^2 t0^2, covariance Pi_{j+1}(-i la) = i Pi_j(la) for all la, Pi.A = i Pi, closure 0, residue 0 = the zero-flux Omega_0 baseline); (iv) the collision ledger (12 nodes exactly on the 8 eighth roots of unity, adjacent la^2 = i^(2j+3), antipodal double nodes, clock orbits 4+4+4); (v) the BM anchor (density -sin 2 theta, int_{S^3} K = (2 pi i)^2, iterated two-circle residue) + the lens forcing N in 4Z (only N = 0 mod 4 passes; fractional charges excluded); (vi) the source curve (four centre lines on the family, clock-permuted, K4-connected with 6 edges / 12 points, cover count 16 = |mu4|^2); (vii) the conifold nodes (Hessian det 512 t0^6, quadric rank 4, transversality, Pi_0(la0) = 0); (viii) the KILL probe + negative controls (forbidden Z^4 - Z family 0/24 lockstep vs 8/24, twelfth-root support != Z8, no antipodal pairing -- integrality alone NOT the discriminator; EH charge 2 forced; diag(i,i) collapse). The dict-based exterior-algebra identity dK = 0 and the generic-profile sphere parametrisation stay Python-side in v515, flagged in the .wl comment. The 2026-07-22 WP5e-M2+M3 rounds: v516 (CELEST.WP5E.M2.01, the twisted KS measure) adds SIX exact mirrors (completion-weight identity w_m = sum_j (1 - i^{jm})/det_j = (0, 3/2, 2, 3/2) = 4 h_m = -4 ch2(T_m) with the index bridge and no free scale; root/quartic replication (class quartics, A_fix two routes, bulk Okubo 36<x,x>^2 = (K^(0))^2/100); parameter-free locks (T5 = 0 symbolic, T3 budget forces c = 4 = |mu4|, det 256); contact term two forms + the success table (per-sector Okubo squares 36<x,x>^2/det_j, total 45<x,x>^2 = (5/4) x 36, certificates 32/72/psi = 64 killed, exchange span, mu-blind chain); negative controls (wrong scale, shuffle, SO(16) KILL, diag(i,i), Z2/EH anchor); multiplier note (T-phase orders (1,8,2,8) squaring to (1,4,1,4), Gauss sums)), 498 -> 504 -- the declared completion reading itself is the [C] fence, a typing, not mirrorable; and v517 (CELEST.WP5E.M3.01, the a0 uplift) adds SIX exact mirrors (GH multipole ledger + family at general orbit phase; kernel bridge (null coordinate for arbitrary kernels, residue 1/(2r), flux -4 pi); asymptotic kernel log 4 = |mu4| + exact m-grading + GLT tower p_{4k} = 4(-a0)^k; exceptional-locus log 4 log t0 + i(4 phi0 + pi); period response 1/4 -> monodromy i with a0-rigid nodes and K4 discriminants; negative controls ((4,0) phi0-free, EH dials all 2, k = 3/5 move, forbidden family fails both dials)), 504 -> 510 -- the GLT contour-transform typing stays the [C] dictionary, the BM anchor is already mirrored in the v515 round; and v518 (CELEST.WP5E.DELTA1.01, the delta-1 chain decided -- kill under the derived measure, tension with v516 stated) adds SIX exact mirrors (the 16-component Weil system of the Z4 x Z4 discriminant module with Gauss sums 2 zeta_8^5 x 2 zeta_8^3 = 4 and the full exact relations + tensor split; the two invariant Lagrangians with P_H S P_H = (1/4) J and the 3/4 shifted-class weight; the koboundary test (1,1,1) on all 15 pairs from the recorded exact transport phases; the Gamma_1(4) character formula lambda(gamma) = i^{2B + C/4} on the recorded loops; the T-fix mechanism (-1) e(-1/6) = e(1/3) = chi_4(T) uniform for f1f3 vs inconsistent {chi_3, chi_4}/{chi_5, chi_6} for f1f2f3/f2; the wrong-form/wrong-signature controls), 510 -> 516 -- the Harvey-Moore integrals, SVD contraction solves, theta covariance certificates and block transport measurements are numerical (mpmath/numpy), Python-only, flagged in the .wl comment; counting convention honoured (engine active); and v519 (WOIT.THETA.FREE.01, the WOIT-alpha milestone -- Theta + free RP) adds SIX exact mirrors (the two-family Theta classification with the symbolic Solve branches and the family-D/family-A relation tables; mark pinning + the mu4 torsor with the clock-orbit map mu -> -mu, the mark permutations and the 2-cut-point census; the C^4 level rho_tw vs sigma_std (Theta_tw^2 = -1, -i rho4, deck centralised vs conj = inverse, +1, RP^3); the Z8 tower conjugation conj(zeta8^k) = zeta8^-k with the spin-lift inversion/centralisation split; the Cl(16) dichotomy on explicit 256x256 Jordan-Wigner gammas (even NS reflection implementers with U_r^2 = 128 = 2^7 on both mu4 axes, the quarter-shift clock lift V with U_r V U_r V = 2^19 i.e. Theta_Fock V Theta_Fock^-1 = 4096 V^-1, Utilde^2 = 256 (-1)^F and Utilde V = V Utilde); the free-RP preconditions + site-cut degeneration + Cauchy-Stieltjes continuum control (C^2 = -1 at N = 8, R C R^T = -C / S C S^T = C / R S R^-1 = S^-1 / deck fails at N = 16, the 7x7 site-cut Gram with zero diagonal and det = 0, the exact factorisation of 1/sin((s+t)/2) with minors 1/2, 1/72, 1/43200, 1/423360000)), 516 -> 522 -- the 40-digit PD inertia certificates of the bond-cut Grams ((8,0,0)/(29,0,0)/full N = 8 half-algebra) are numerical (mpmath eighe), Python-only, flagged in the .wl comment; and v520 (CELEST.WP5E.MEASURE.01, the WP5e measure decision) adds SIX exact mirrors (the 16-component Weil data with both Lagrangian gluings T-/S-fixed and isotropic; the invariant-subspace forcing: joint fixed space dim 2 = span{e_H, e_H'} by exact NullSpace + rank; the character arithmetic of the two constructive sources |chi_4(T)|^2 = 1 vs chi_4(T)^2 = e(2/3) with the exact 1/960-grid squared defects 2x480 = 0 vs 2x800 = 640; the A-core + Z2/EH-anchor targets w = 4h, psi(A_fix) = +64/psi(contact) = -64, A_2 + contact_2 = 9<x,x>^2 with the c = 1/2 scale teeth; the level-1 Okubo identity of BOTH gluings (the anti-diagonal H' has exactly 240 norm-2 vectors with summed quartic 36<x,x>^2); the so16/shuffle/diag(i,i) controls), the Harvey-Moore integrals/SVD memberships/J-weighted closures numerical (mpmath/numpy), Python-only, flagged in the .wl comment; and v521 (SEAM.BIT.RPBLIND.01, the RP-blindness kill) adds SIX exact mirrors (the anti-linear census solvesets on M(delta) incl. the exact-rational counterwitness census; the V4 -> D4 closure / face #13 as symbolic composition identities; the 20 cut/mark incidence solvesets all empty + the eps-jump + the integer lattice frame; the continuum axis elimination 1/sin((s+t)/2) with d/d alpha = 0 exactly + the Cauchy-Stieltjes minors + the counterwitness cut ordering; the clock-tower clause census {F,F,F,T} + the hex/silver precondition controls; the delta-blind side conditions Theta_mu^2 = +1 + the mu4-torsor clock relation with the order-4 solveset {pi/2}), the 40-digit lattice Gram inertia spectra (N = 16/N = 32) numerical, Python-only, flagged in the .wl comment; and v522 (WOIT.BETA1.GSO.01, the WOIT-beta1 milestone) adds SIX exact mirrors (the Z8/NS tower S^4 = -1 + the Ramond state-invariance witness 1/(4 sin(5 pi/16)); the invariant-dimension chain 120 > 64 > 32 by exact ranks of the averaged signed pair action; the time-like reflection census (all 16 axes invert the clock, none commutes, same at N = 8); the exact Hermiticity witness T_1[(8,12),(8,15)] = -i/(8 sin(5 pi/16)) with the full 745/96/0 entrywise census and the non-Hermitian clock average on the even 29-basis via exact Pfaffian-Wick; the GSO 2-torsion census (even {T,F,F,F}, odd {T,F,F,F,T,F,F,F}, T_{k+4} = -T_k, vanishing 8-term average); the family-A tower-normalisation failure census {F,F,F,F} + the alternating-dressed anti-invariance), the GSO-fixed RP inertia certificates ((29,0,0)/(8,0,0)/(7,9,6)/(17,12,0)) numerical (mpmath eighe), Python-only, flagged in the .wl comment, 522 -> 540; counting convention honoured (engine active). UPDATE 2026-07-23 (v523/CELEST.WP5E.WM.01 + v524/WOIT.BETA2.OS.01 + v525/v526/v527/v528/v529/SEAM.BIT.TWISTBLIND.01): FIVE exact mirrors of the constructive w_m derivation ADDED (the mode ledger = closed form at every order n <= 40 with Abel value (1/2, 1/4, 1/2) = 1/det_j, Dedekind sum 5/4, product 16; the zeta/Quillen route with the SYMBOLIC reflection formula (2 pi/(Gamma(a) Gamma(1-a)))^2 = 4 sin^2(pi a), det Delta = det_j^2 = (4, 16, 4), the unique real positive section and the diag(i,i) control (2i, 4, -2i) with fake weights (0, -1/2, 0, 3/2); the derived-weight contact vectors + per-sector Okubo squares + total 45<x,x>^2 + psi +-64 + the Z2/EH anchor on the 240 glue roots; the consistency chain w = 4h with the T3 budget forcing c = 4 and both wrong-weight controls incl. the Q(sqrt2) leftovers; the k = 3, 5 cyclotomic wandering controls w_m = m(k-m)/2), FOUR exact mirrors of the WOIT-beta2 OS quotient ADDED (the alpha_1^N = (-1)^F wrap arithmetic at N = 16 and N = 8 + the exact certificate sin^2(3pi/8) - sin(pi/8) sin(5pi/8) = 1/2; the Klein-Landau one-particle transfer forms exactly Hermitian on all domains k = 1..7 with odd-k zero diagonal and the even-k square identity entrywise; the exact N = 8 clock spectrum {1, sqrt(2)-1} = {1, 1/delta_S} via generalized eigenvalues + the transparency pi/16 product formula certified symbolically; the KMS silver witnesses C(1)/C(3) = 1 + sqrt(2) and det(G - tau_4) < 0 exact), and THREE exact mirrors of the twist-state kill ADDED (the N = 32 integer incidence frame + the sigma o r = +-sigma congruence mechanism on both axis types; the pi/2 existence solveset + the (3+4i)/5 root-of-unity census k = 1..64; the delta <-> pi - delta mirror equivariance behind the Casimir symmetry), all VERIFIED the same day with the active engine, 540 -> 564 (the Cesaro/Hurwitz/stripped-block numerics of v523, the H_phys Grams/40-digit inertia spectra/spectral projections/reconstructed rotation group of v524 and the Pfaffian insertion spectra/Bogoliubov 2-of-16 pattern census/defect energy of v525/v526/v527/v528/v529 stay Python-only, flagged in the .wl comments); counting convention honoured (engine active); TWENTY exact mirrors of the 2026-07-23 review-round promotion ADDED (v530 center quotient compiler: fixed line Cv = v, unimodular quotient = [[8,2],[5,3]] atom matrix, invariants + self-code (7,11,13) + CP code (1,7,11,13), resolvent factorisation det(C+kI) = (k+1)det(A+kI), honest K/Q uniqueness controls -- 6 checks; v531 Stage A tensor clock: T30 = Comp(Phi5) (x) Comp(Phi6), chi = Phi_30, exact order 30, full Ramanujan tomography c_30 = c_5 c_6, honest Phi_15 signed-table scope, coprimality controls -- 5 checks; v532 dual-degree modular checksum: (60,192,240,252) sum/product/gcd, q-series j = q^-1 + 744 + 196884 q, D16 control 1488 = 3*496, six non-heterotic control failures, prime-totative fingerprint with maximality scan -- 5 checks; v533 disc -7 norm line: D(t) = N(alpha_t), translation orbit norms (2,4,14,32), constant discriminant -7 + vertex, winding/anchor-block controls -- 4 checks), all VERIFIED the same day with the active engine, 564 -> 584; 2026-07-24 v534 straddle-cone round +4 -> 588 (stabilizer census, pi/2 partition + straddle incidence, reflection-closure signs, equivariant Fix rays incl. the NS-wrap-twisted m=1/7 rays -- all exact; the 256-dim Fock spectra, PT Gram corrections and finite-g survival scans stay Python-only, flagged); 2026-07-24 v535 Hecke-from-geometry +5 -> 593 (Kneser count identity, affine (a,b) law, lambda/a_p cusp rule, dim-7/projector/2-adic oldform arithmetic -- live p=3 FP census and q-series stay Python-only, flagged); 2026-07-24 v536 Eichler-trace-layer +5 -> 598 (Witt lambda_Eis, Eichler anchors/N_perp, N_A/N_B densities, signed a_p/b/R, assembler/Ramanujan -- live FP Shell(p)/Shell(p^2) stay Python-only, flagged), VERIFIED the same day with the active engine; 2026-07-24 v537 half-integral-bridge +5 -> 603 (a_p head table, Shimura scale -8 / weight 5/2->4, Kohnen scope M=8 / W(4) unsolvable, twist root-number eps_d=chi_d(8) on d≡1,5 mod 8, signed-scale uniqueness cardinality 1-of-4 -- q-series builds, AFE/L-values and R-constancy stay Python-only, flagged), VERIFIED the same day with the active engine; 2026-07-25 v538 relative-trace-identity +5 -> 608 (R1 Tr anchors, R1 projector table, R2 orbit dictionary, nu_law (a,b) anchors, finite RTF scope cardinality -- q-series builds, AFE/L-values and R-constancy stay Python-only, flagged), VERIFIED the same day with the active engine; 2026-07-25 v539 Weil-structure-family +5 -> 613 (G_0 algebraic identity, Phi character expansions, core series c_k0=[1,0,2,0,2,0], Dirichlet 2^omega head, obstruction (c) e^{-Y} dlog identity -- arch digamma / numeric Q assembly stay Python-only, flagged), VERIFIED the same day with the active engine; 2026-07-25 v540 amplitude-linear-carrier +5 -> 618 (Cauchy-Littlewood window lemma + determinant instantiation 1-p^6X^2, three square channels vs closed forms chi=0, tower double-counting fam+2flat+delta=[2,2,2,2], linear full weights lambda_k=1+p^{3k}-(chi p)^k + pole-kernel collapse + FE line map, Moebius square sieve head + Cohen seed anchors Theta(1)=4 / 17 Theta(17)=24 S2(17)=3264 -- lattice enumeration, FFT autocorrelations and mpmath split-Mellin FE stay Python-only, flagged), VERIFIED the same day with the active engine; 2026-07-25 v541 matching-lemma-ledger +5 -> 623 (mod-8 character decomposition 4(-psi)=[4chi_-4+chi_8+chi_-8]Theta with coefficient system (0,1,1/4,1/4) on theta heads, psi w-table recursion w(8x)=9w(x)-8w(x/8) with first steps -3/2/-1/2/+1, Legendre duplication bridge (2pi)^{-s}Gamma(s)=(1/2)Gamma_R(s)Gamma_R(s+1) + Gauss digamma t=0 anchor, certificate head 7S<40A at j in {12,24,48,60} + sign law n<=60, CM carrier head c1(5)=-14 / c1(13)=-238 / inert+ramified laws / mu1(5)=-7/25 -- 10^6 integer sieves, FFT autocorrelation batteries, Cornacchia tables and mpmath digamma/erfc quadratures stay Python-only, flagged), VERIFIED the same day with the active engine

Recorded status: Numerical (second path, extension verified 623/623)

Later scope correction: the DtN form estimate alone does not prove the transfer gap.

Dependencies, status detail and source

Canonical status: Verified: extension runs clean (623/623, engine run 2026-07-25; v538 +5; v539 +5; v540 +5; v541 +5; v189/v190/v191/v193-rider/v195/v196/v197/v198/v199/v201/v203/v204/v205/v208/v214/v216/v218 + v313-v318/v320 arithmetic arc + v410-v419+v422+v429+v430+v431+v437+v445 diamond/Gaussian/trichotomy/Eisenstein-CP/norm-triple/seam-Galois/Galois-net/pentagon-golden/other-side/degree-ladder/degree-joint/rigidity-forcing + v450-v454+v456+v457+v459+v461+v462+v463+v469+v470+v473+v474+v475+v477 edge-CFT/modular/marks/Virasoro/chirality/killtest/lattice-VOA/strict-locality/spinor/holomorphic-uniqueness/crossed-product/embedding-index/entropic-bridge/entropic-hodge/entropic-scalaron/entropic-scaleflow + v479+v491+v493+v495+v496+v497+v498+v499+v500+v501+v502+v503+v504+v505+v506+v507+v508+v509+v510+v511+v512+v513+v514+v515+v516+v517+v518+v519+v520+v521+v522+v523+v524+v525/v526/v527/v528/v529 Kronheimer/partition/celestial-WP2/WP3/WP4/WP5a/WP5b/P2-typing/WP5c/WP5d-alpha/WP5e-alpha/QGEO-emergence-light/WP5d-beta/WP5e-beta/clock-rigidity/bit-origin/WP5e-gamma/WP5e-epsilon-2/seam-bit-freedom/WP5e-delta-2/tau-flag/c_d-nonderivation/WP5e-epsilon-1/WP5e-M1/WP5e-M2/WP5e-M3/delta-1-derived-kill/WOIT-alpha/measure-decision/RP-blind/WOIT-beta1/wm-derived/WOIT-beta2/twist-blind mirrored + v537 half-integral, v192 + v193/v194-contract [O] + v202 rare-kaon [C] + v206/v207/v209/v319 + v455/v458/v464 Python-only); base file untouched

Dependencies: GATE.WOLFRAM.01; REG.FREEZE.01

Scripts: wolfram/tfpt_readouts_extension.wl

Location: verification/wolfram

Original CSV, line 168

Original ledger status

FR.TRANSFER.01

FR.TRANSFER.01

THE F_TRANSFER DISCIPLINE GUARD (a CI-style firewall check, the machine-readable form of the Frontier rule; external-review proposal 2026-06-14): the four continuous-transfer frontier observables -- Koide (FR.KOIDE.*), eta_B (FR.ETAB.*), the axion relic (FR.DM.*), and m_p/m_e + Lambda_QCD (FR.MPME.*, QCD.LAMBDA.*) -- must NEVER be typed as primitive [E]/[N] compiler predictions; each must carry a conditional [C] / anchor-open [A]/[O] marker. The guard reads status_ledger.csv and enforces it (all active frontier prediction rows pass; exact algebraic SUB-parts may be [I]/[E] -- the Koide 53/54 factor v183, b3=-7 v159 -- but the PHYSICAL prediction never is). Records the four explicit interfaces: F_pole (source masses->pole, Koide v183), F_Boltzmann (CP source->eta_B, v169/v184), F_relic ((f_a,m_a,theta_i,N_DW)->Omega_a, v185), F_QCD ((alpha_s,b3,Lambda_QCD,lattice)->m_p/m_e, v164). Confirms the raster rule + frozen registry (REG.FREEZE.01) + null model (AUDIT.NULLMC.01) bind, so the frontier transfers stay OUTSIDE the closed dimensionless compiler. Prevents any future edit from quietly promoting a pretty frontier number to a closed compiler output. Python-only

Recorded status: Identity/guard [I] (ledger-enforced typing discipline)

Dependencies, status detail and source

Canonical status: Identity/guard [I]: the four F_transfer frontier observables are ledger-enforced to stay [C]/[A]/[O], never primitive [E]/[N]

Dependencies: FR.KOIDE.07; FR.ETAB.03; FR.DM.03; QCD.LAMBDA.01; REG.FREEZE.01; AUDIT.NULLMC.01

Scripts: v187_ftransfer_laws.py

Location: tfpt_4_frontier

Original CSV, line 181

Original ledger status

AUDIT.NULLMC.01

AUDIT.NULLMC.01

NUMEROLOGY NULL TEST (look-elsewhere corrected; executes the legacy 'numerology grammar test' TODO from the CMB paper): (A) EXACT CENSUS - for each of the 13 scored frozen-registry observables the FULL declared grammar class (one-term (p/q) phi0^a lamC^c (1+lamC)^d pi^b e^(u/w) with p,q<=130, |a|<=2, |c|<=3, |d|,|b|<=1, |u|<=6, w<=6; two-term sums with coefficients<=12; machine-checked fairness: the class contains every TFPT formula it scores) is enumerated exactly against conservative data windows (max of achieved deviation, documented sigma, quote resolution, 5% quark scheme spread - tension observables enter with their honest LARGE windows and contribute almost nothing): joint formula-fishing probability prod p_i = 1e-25.8, robust to <2 dex under coefficient bound 80..200 and plausibility window 5x..20x; (B) MONTE CARLO 2x200k deterministic pseudo-theories (random rational dials in TFPT's own formula skeletons, seed phi0 fixed resp. drawn log-uniformly) reach at most 5/13 resp. 4/13 hits vs TFPT 13/13; (C) POWER controls: perturbing phi0 by 1%/10%/30% collapses TFPT's own scorecard to 9/6/4 hits, shuffling the data<->formula assignment to mean 1.2; (D) ALPHA CLASS: all 94500 complexity-matched F_U1 variants (coefficients, M, transport exponent, resolvent power) root-solved, exactly ONE - the TFPT instance (2, 4/5, M=41, e^-2a, -5/4) - lands inside the achieved 4e-8 CODATA window => p_alpha <= 1.1e-5. TOTAL: P(random complexity-matched theory reproduces the scorecard incl. alpha) <= 1e-30.7 (~102 bits), CONDITIONAL on the declared grammar - a look-elsewhere-corrected null-model rejection, never 'certainty'. Complementary to the freeze: v84 prevents FUTURE look-elsewhere drift, v100 quantifies the RETROSPECTIVE look-elsewhere burden

Recorded status: Numerical [N] (statistical null-model rejection; Python-only)

Dependencies, status detail and source

Canonical status: Numerical [N]: joint null probability <= 1e-30.7 conditional on the declared grammar

Dependencies: REG.FREEZE.01 (scored predictions = frozen registry); DATA.SCORECARD.01 (documented data centrals)

Scripts: v100_numerology_null_mc.py

Location: introduction;tfpt_3;tfpt_5_redteam

Original CSV, line 183

Original ledger status

SYNTH.INVENTORY.01

SYNTH.INVENTORY.01

THE RESIDUAL INVENTORY (one constant, one anchor, one clock to find; the COMPLETE machine-pinned gap list): (A) ONE-CONSTANT INVENTORY [I] - 2/3 = |Z2|/N_fam appears exactly in seven independent places across both sectors (flavor: Koide branch point, transfer-gap base (2/3)^6, attractor inside the physical basin; gravity: Nariai entropy bound, SdS branch separation, canonical amplitude+frequency, canonical curvature base (2/3)^N_fam); ANCHOR TRIPTYCH [I]: configuration chi_a = (t-1)^2(t-2), Nariai cubic (t-1)^2(t+2) = traceless anchor, clock quadratic (lam-1)(lam+2); Nariai = (t-1) x clock; a = e2+e3. (B) RELOCATION THEOREM [I]+[P]: the cosmological one-loop clock correction eps = (c/24pi) Lambda/Mbar^2 = 7.6e-122 (c = 8 = the seam central charge, frozen rho_L) is deficient by 121.5 orders against the needed O(1) gap, and the deficit IS the Lambda hierarchy 2 alpha^-1/ln10 = 119.0 (+2.5 prefactors, the v60 split) => the seam clock must live at the SEAM scale, where the only gapped generator is the established boundary transfer operator; the bridge reaches its final form: ONE [P] identification 'transfer operator = seam Nariai clock'. (C) RESIDUAL TABLE (typing contract): exactly FIVE structural objects remain - R1 seam quantum clock [P] (HOR.CLOCK.01), R2 seam net holomorphic + c=8 [P]/[A] (GATE.METRIC.05/06/07), R3 seam determinant => EH form [A] (SEAM.AREACOEFF.03 residual), R4 H2 dictionary [A]/[P] (GATE.RU.01/CONTRACT.U.01), R5 parabolic realisation of Q carrying P1 [P] (GATE.QGEO.01/FLAV.SHEET.03) - plus the two irreducibles (one scale v_geo by dimensional analysis v78; the primitive pi) and the frozen data surfaces (gamma_CP, n_s/A_s, theta13, m_tau, r). COMPLETENESS is itself the claim: a sixth structural gap would FAIL v105. Nothing closed here; everything that remains is named, typed and counted

Recorded status: Identity [I] (inventory + relocation arithmetic) + typing contract (gap completeness)

Dependencies, status detail and source

Canonical status: Residual inventory: 5 named structural objects + 1 scale + pi; completeness machine-pinned

Dependencies: HOR.CLOCK.01; HOR.TRISECT.01; HOR.NARIAI.01; HOR.ORIENT.01; FR.KOIDE.04/05/06; GATE.METRIC.05-07; GATE.RU.01; GATE.QGEO.01; ANCHOR.VGEO.01; REG.FREEZE.01

Scripts: v105_residual_inventory.py

Location: origin_theory;introduction

Original CSV, line 188

Original ledger status

HOR.CLOCK.04

HOR.CLOCK.04

THE CLOCK AND THE WALL SHARE A SPECTRUM (the v124 resummed-clock weights ARE the Mehta-Seshadri parabolic weights; R1's first checkpoint passes classically): (1) THE WEIGHTS ARE THE PARABOLIC WEIGHTS [I]: the arguments n/N_fam = {0, 1/3, 2/3} of the resummed logarithm are EXACTLY spec A0* (the exact U_wall residue, GATE.UWALL.07); the spectral bridge lambda_n = (1 - alpha_n)^{p2} over alpha in spec A0* reproduces the frozen transfer spectrum {1, (2/3)^6, (1/3)^6} - the horizon clock and the flavor wall share their spectrum through the complement map alpha -> 1 - alpha: the transfer eigenvalues are the hexagon-power of the COMPLEMENTARY parabolic weight. (2) CHECKPOINT 1 PASSES CLASSICALLY [I]: the resummed clock's linear coefficient p2/N_fam = 2 = |Z2| equals the established classical entropy-deviation rate 2H = |Z2| x Hubble (HOR.CLOCK.01) - the slope-2 linear response demanded by HOR.CLOCK.03 is already the classical entropy rate; the genuinely QUANTUM content of R1 isolates to the geometric tail sum_{k>=2} alpha^k/k. (3) THE DETERMINANT IS THE ENTROPY CURVATURE [I]: det(1 - A0*) = (1)(2/3)(1/3) = 2/9 = |Z2|/N_fam^2 - exactly the established gravity entropy curvature at the anchor (HOR.ORIENT.01), a fourth independent appearance; tr(1 - A0*) = 2 = |Z2|; det A0* = 0 (the parabolic degree-0 marker). (4) R1 RE-TARGETED [P] (recorded, not claimed): derive 'rate = -p2 ln(1 - alpha)' with alpha the parabolic weight - first order is classical (HOR.CLOCK.01's entropy rate), the tail is the quantum part; ONE SPECTRUM, TWO GATES, ONE OBJECT A0*

Recorded status: Identity [I] (exact spectral bridge + coefficient identities) + Physical [P] (re-target)

Dependencies, status detail and source

Canonical status: Identity: clock weights = parabolic weights (spec A0*); lambda = (1-alpha)^6; linear term = classical entropy rate |Z2|H; det(1-A0*) = entropy curvature 2/9; quantum content = geometric tail

Dependencies: HOR.CLOCK.03; HOR.CLOCK.01; HOR.ORIENT.01; GATE.UWALL.07 (A0*); SYNTH.INVENTORY.02 (R1)

Scripts: v126_clock_wall_bridge.py

Location: tfpt_horizon_readouts

Original CSV, line 211

Original ledger status

HOR.CLOCK.05

HOR.CLOCK.05

THE CLOCK IS A LOG-DETERMINANT (the geometric tail of HOR.CLOCK.03/04 is the standard ring/RPA resummation; the 'O(1) resummation' demanded by HOR.CLOCK.02 is now TYPED): (1) LOG-DET IDENTITY [I]: for a rank-1 insertion P (tr P^k = 1), -ln det(1 - alpha P) = -ln(1 - alpha) = sum_k alpha^k/k - so the resummed clock is EXACTLY rate = -p2 Tr ln(1 - alpha P): p2 = 6 identical one-loop ring towers, ONE PER HEXAGON SITE (= positive root of A3), with coupling alpha = the Mehta-Seshadri parabolic weight. (2) RING LADDER [I]: the k = 1 ring is the CLASSICAL term (6 alpha = |Z2| n = the HOR.CLOCK.01/04 entropy rate); the k = 2 ring is the first quantum correction (1/3 at weight 1); the partial sums converge to the exact rates {Delta, 6 ln 3} monotonically from below. (3) COUPLING CROSS-LINK [I, audit]: the established seam coupling kappa = (c/24pi)(Lambda/Mbar^2) at Lambda = Mbar^2 with c = 8 (HOR.CLOCK.02) is 8/(24pi) = 1/(3pi) = alpha_1/pi - the seam coupling is the first parabolic weight over pi. (4) THE WALL = RING DIVERGENCE [I]: radius of convergence |alpha| < 1; at alpha -> 1 (n -> N_fam) the sum diverges - the HOR.CLOCK.03 wall at the family count is the standard RPA instability. (5) R1 FINAL FORM [P] (recorded, not claimed): show that the near-Nariai one-loop effective action of the seam mode, with insertion strength = parabolic weight and multiplicity p2, is the ring sum - 'the seam clock is the RPA determinant of one mode on six sites'; the resummation type is identified, the derivation itself remains open

Recorded status: Identity [I] (log-det + ring ladder + coupling arithmetic) + Physical [P] (derivation)

Dependencies, status detail and source

Canonical status: Identity: clock = -p2 Tr ln(1 - alpha P) (ring/RPA determinant; one tower per hexagon site); k=1 ring = classical entropy rate; wall = RPA instability; kappa = alpha_1/pi

Dependencies: HOR.CLOCK.04; HOR.CLOCK.03; HOR.CLOCK.02; FLAV.H2.02 (hexagon); SYNTH.INVENTORY.02 (R1)

Scripts: v127_ring_resummation.py

Location: tfpt_horizon_readouts

Original CSV, line 212

Original ledger status

HOR.CLOCK.06

HOR.CLOCK.06

THE CLOCK IS AN ENTROPY POWER LAW (the transfer eigenvalues are the Nariai entropy fractions to the hexagon power; the ring coupling is the fractional entropy deficit): (1) THE THREE ENTROPY LEVELS [I]: the established Nariai bookkeeping (HOR.NARIAI.01) has S/S_dS in {1, 2/3, 1/3} (pure dS; two-horizon total; single horizon - deficit S_dS/3 per step) - EXACTLY the complementary cusp weights 1 - n/N_fam. (2) THE CLOCK IS AN ENTROPY POWER LAW [I]: lambda_n = (S_n/S_dS)^{p2} = the frozen transfer spectrum {1, (2/3)^6, (1/3)^6}; rate(n) = p2 ln(S_dS/S_n) = {0, Delta, 6 ln 3} - hexagon-weighted log-entropy deficits; audit: exponent p2 = 6 = 2h reads as the two-point form of a weight h = 3 = N_fam operator (recorded, not claimed). (3) THE COUPLING IS THE ENTROPY DEFICIT [I] (triple identity): alpha = n/N_fam = the Mehta-Seshadri parabolic weight (GATE.UWALL.07/HOR.CLOCK.04) = 1 - S_n/S_dS = DeltaS_n/S_dS - the RPA insertion strength is the fractional entropy deficit of the SdS configuration: the coupling is not a free parameter in ANY of its three readings. (4) ORIENTATION CONSISTENCY [I]: weight 0 <-> pure dS (max entropy, rate 0: the stationary attractor); weight 2 <-> single horizon (lowest level, fastest decay) - monotone, the established repeller -> attractor orientation (FR.KOIDE.05/HOR.NARIAI.01/HOR.ORIENT.01). (5) R1 THERMODYNAMIC FORM [P] (recorded, not claimed): derive Gamma_n ~ (S_n/S_dS)^{p2} from the near-Nariai one-loop - a Gibbons-Hawking-type entropy power law with exponent = the hexagon size; the exponent (weight h = N_fam) is the remaining quantum content

Recorded status: Identity [I] (entropy-level + power-law + triple-coupling identities) + Physical [P] (derivation)

Dependencies, status detail and source

Canonical status: Identity: lambda = (S/S_dS)^p2; rate = p2 ln(S_dS/S); alpha = entropy-deficit fraction = parabolic weight; orientation consistent; R1 = Gibbons-Hawking power law

Dependencies: HOR.CLOCK.05; HOR.CLOCK.04; HOR.NARIAI.01; HOR.ORIENT.01; GATE.UWALL.07

Scripts: v129_entropy_power_law.py

Location: tfpt_horizon_readouts

Original CSV, line 214

Original ledger status

HOR.CLOCK.11

HOR.CLOCK.11

THE VOLKOV-WIPF FIREWALL (R1 typed closure: the external full-4d graviton/ghost value is pinned and the edge part is exactly two copies of the reduced seam budget; external values verified against arXiv:2506.02142 Table 4.1 which states agreement with Volkov-Wipf Nucl. Phys. B582 (2000) 313 = hep-th/0003081): (1) EXTERNAL DATUM [I typed external]: alpha_bulk = 22/45, alpha_edge = -8/3, alpha_PI = -98/45 for d = 3 (S^2 x S^2, 4d); arithmetic 22/45 - 8/3 = -98/45 exact; the review's arXiv citation 0204021 corrected to 0003081. (2) THE EDGE MATCH [I]: alpha_edge = -8/3 = 2 x (-4/3) - the external edge factor consists of TWO IDENTICAL COPIES (one per horizon) and the per-copy magnitude 4/3 = e_1/p_0 is EXACTLY the reduced seam budget of HOR.CLOCK.10 (= the seed gain; -2/3 per sector); the TFPT reduced route lands on the EDGE sector of the external bulk/edge split; the bulk 22/45 is the ideal graviton gas which the seam clock does not contain; two copies = the horizon pair = the sheet doubling (HOR.NARIAI.01; HOR.CLOCK.10's 3+3 zero-mode split). (3) FIREWALL ARITHMETIC [I]: -98/45 + 60/45 = -38/45 with 38 = 2*19; neither -98/45 nor -38/45 nor 22/45 is an anchor atom (census) - consistent with HOR.CLOCK.10 where the naive scalar 4d route (-109/45) was already non-atomic (different operator content: scalar split vs full graviton + ghosts + isometries, recorded). (4) TYPING DECISION [P] (recorded): R1 = the reduced zero-mode/RPA seam clock = an EDGE-sector object; the full 4d Volkov-Wipf determinant is the GRAVITY FIREWALL (its -98/45 absorbed in the mu_0/(Lambda G)^3 normalisation), not a TFPT atom; per-copy sign/orientation (the edge factor enters inverted) and the Lorentzian edge-mode reading stay [P]

Recorded status: Identity [I] (exact arithmetic vs external values) + Physical [P] (typing decision) + External (VW hep-th/0003081; arXiv:2506.02142)

Dependencies, status detail and source

Canonical status: Identity: -98/45 = 22/45 - 8/3 external; edge = 2 x reduced budget (-4/3); diff -38/45 no atom; typing: seam clock = edge object full 4d determinant = firewall

Dependencies: HOR.CLOCK.10; HOR.NARIAI.01; HOR.CLOCK.03-09 (the clock chain)

Scripts: v138_vw_firewall.py

Location: tfpt_horizon_readouts

Original CSV, line 223

Original ledger status

HOR.CLOCK.13

HOR.CLOCK.13

THE CLOCK IS A GAUSSIAN ZERO-MODE INTEGRAL AND THE BEND IS DET'-CLEAN (R1's derivation structured to its floor): (1) GAUSSIAN MODEL THEOREM - for p2 modes with per-mode variance ratio (1-alpha) (FORCED by norm = area, v131), the Born-squared partition ratio is (1-alpha)^{p2}, i.e. rate = -p2 ln(1-alpha) EXACTLY = the v124 closed form, and the ln series IS the v127 ring sum term by term: the 'one-loop = ring sum' job discharged at the Gaussian-zero-mode-model level; (2) THE BEND IS DET'-CLEAN - weights n = 1,2 are bookkeeping levels of ONE Euclidean geometry (Nariai S2 x S2, v101), so det'_1 = det'_2 IDENTICALLY and the bend log_{3/2}3 (v107 target) carries NO determinant correction; (3) the single across-topology step is the alpha = 0 reference (round dS vs Nariai), where the v132/v133 budgets and the v144 6->14/3 obstruction live - the quantum content is clean, the classical side of the reference is matched (v126 slope 2 = |Z2|); (4) kappa_seam = 1/(3pi) = alpha_1/pi re-pinned. RESIDUE [P]: the measure identification (gravitational zero-mode measure = this Gaussian model) + the reference normalisation only

Recorded status: Identity [I] (model theorem + det'-clean bend + localisation) + [P] (measure identification)

Dependencies, status detail and source

Canonical status: Identity [I]: ring sum = Gaussian zero-mode integral; bend det'-clean; residue = measure + reference

Dependencies: HOR.CLOCK.12; HOR.CLOCK.07; HOR.CLOCK.08; v101; v126; v127; v131

Scripts: v147_clock_gaussian.py

Location: tfpt_horizon_readouts

Original CSV, line 232

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ANCHOR.VGEO.02

ANCHOR.VGEO.02

NO-UNIT THEOREM (v_geo re-typed from open gap to CLOSED METROLOGY STRUCTURE -- R_+ unit torsor; one dimensionful calibration necessary by dimensional analysis, v153/v725; external review 2026-06-13 formalised, wave-4 display wording 2026-08-29): (1) every load-bearing compiler datum (g_car, |mu4|, N_fam, rank E8, alpha^-1, det(Q,K,R,L)=(3,4,8,20) product 1920, c3=1/(8pi), 2pi c3=1/4, phi0) is mass-dimension 0 and INVARIANT under a unit rescaling L -> lambda L [I]; (2) a mass / energy / 1/G carries nonzero dimension and transforms as lambda^{-d}, d != 0, so a map from dimension-0 inputs to a dimension-d output is simultaneously invariant and covariant - impossible unless the unit is introduced => v_geo is a FORCED INPUT, not an output [I]; (3) the three apparent residuals collapse onto the one unit: U_point ~ v_geo (dim 1), 1/G ~ M_Pl^2 ~ v_geo^2 (dim 2, 4d [G]=mass^-2), m/mu = e^{3/4} (dim 0, a pure ratio, v152) [I]; (4) irreducibles stay exactly {one dimensionful unit v_geo, pi} (v78/v68/v152 name the same object). RE-TYPING [A]/[O]: v_geo is a CLOSED METROLOGY STRUCTURE (R_+ unit torsor), not an open-physics gap; display stays [O] as the unit/calibration (no [E] of physics). Legacy stem: 'irreducible metrology primitive' - a declared unit (like choosing a metre), not a missing derivation; a dimensionless boundary compiler provably cannot produce an absolute scale [2026-08-03 LIII: the v_geo interface is now STRUCTURALLY CLOSED as an R+ scale torsor (v725, 21/21, VGEO.TORSOR.01): complete export table O_i = r_i v_geo^{d_i}, dimension matrix rank 1 (conditional [A] on the flavor block, named), all consistency conditions lambda-homogeneous -- the machine form of THIS theorem -- leave-one-anchor-out compatible (G vs rho_Lambda 0.11%), and the CALIBRATION THEOREM stated in torsor language (one external reference selects the point; everything else is prediction). Status unchanged: the closure is the calibration form, not a scale derivation; the one open dimensionless ratio is NAMED, H_EW = ln(Mbar/v_EW) = 37.1776.]

Recorded status: Identity [I] (scaling bookkeeping) + [A]/[O] (closed metrology: R_+ unit torsor; one calibration)

Dependencies, status detail and source

Canonical status: Identity [I]: No-Unit Theorem; v_geo = irreducible metrology primitive, three residuals collapse to one unit | 2026-08-29 wave-4 display retype: CLOSED METROLOGY STRUCTURE (R_+ unit torsor; one dimensionful calibration necessary by dimensional analysis). No [E] upgrade of physics. WAVE-5 (2026-08-29): unit choice closed; dimensionless hierarchies (M_Pl/v_EW, M_R/M_scal, Lambda_QCD/v_EW, T_reh/M_scal) remain predictive obligations.

Dependencies: ANCHOR.VGEO.01; FLAV.UPOINT.01; SEAM.EHMODEL.03; v68; v78; v152

Scripts: v153_no_unit_theorem.py

Location: origin_theory;tfpt_research_contracts

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GATE.METRIC.18

GATE.METRIC.18

THE FINAL IDENTIFICATION, FORCED AS FAR AS IT GOES (the v161/GATE.METRIC.17 one-particle statement carries NO new open content; premise (A) factors into the two already-open items A2 + R1): the residual was 'the seam transport one-particle symbol is the gapped Calderon Bogoliubov map - (alpha) fixed = rank-8 K_Sigma, (beta) gap = (2/3)^6'. (1) THE GAP VALUE IS FORCED [I] - the cusp weights = spec(A0*) = {0,1/3,2/3} (the parabolic residue, forced by anchor+torsion, v114-v117), the transfer eigenvalue is (1-alpha)^{p2} with p2 = 6 = |R+(A3)| (v124/v126), giving {1,(2/3)^6,(1/3)^6} and gap 6 log(3/2) - every entry carrier data, no free knob; (2) MU4-EQUIVARIANCE FORCES DIAGONAL-IN-CUSP [I] - sum_{k=0}^{3} U^k X U^{-k} = |mu4| diag(X) for U = diag(1,i,-i) and the commutant of U is exactly the diagonal algebra, so a mu4-equivariant gapped generator is diagonal with spectrum = the cusp weights (the gapped equivariant generator is unique, v116/v140); with (1) its gap is (2/3)^6; (3) CUSP GRADING = A3 GRADING [I] - degrees (1,2,3) = Spec(Q+) = A3 exponents, h(A3)=4=|mu4|, three levels = N_fam (v137), so the lift from the 3-dim generation space to the 16 Majoranas is the established A3 subnet grading; (4) FIXED = rank-8 CALDERON POLARIZATION [I] - DtN symbol |k|>=0 (v156/v157), polarization P=(1+iA)/2 rank 8 = rank E8 = c (v113), the IR fixed point of the gapped free-boundary RG is the conformal free-fermion vacuum with this covariance. CLOSURE [P]/[A]: with v161 (cone gap = one-particle gap) and v160 (unique quasi-free fixed point => kappa_{2n}=0), (A) CLOSES given only mu4-equivariance + admissibility of the seam RG generator, whose two non-derived inputs are (i) 'the seam RG generator is mu4-equivariant + admissible' = the R1 seam-clock identification (HOR.CLOCK.*; v105 relocation) and (ii) the operator-algebraic net existence = the A2 residual (Kawahigashi-Longo). BOTH already open => premise (A) carries NO independent open content; it factors exactly into A2 + R1 with all numbers forced, the count of independent open items does NOT increase, and (A) is closed CONDITIONALLY on A2 + R1 (a unification, NOT an unconditional proof)

Recorded status: Identity [I] (gap forced by mu4-equivariance + spec(A0*); fixed = rank-8 Calderon) + [P]/[A] (A) factors into the already-open A2 (net existence) + R1 (seam clock)

Dependencies, status detail and source

Canonical status: Identity [I]: gap (2/3)^6 forced + fixed = rank-8 K_Sigma; (A) factors into the already-open A2 + R1 (no new open content)

Dependencies: GATE.METRIC.16; GATE.METRIC.17; v56; v113; v115; v137; v156; v157

Scripts: v162_seam_transport_identification.py

Location: tfpt_research_contracts

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GATE.METRIC.19

GATE.METRIC.19

PREMISE (A) MAXIMAL HONEST CLOSURE (the two residual gates A2 + R1 pinned to their floor; (A) carries ZERO independent open content): (1) A2 (NET EXISTENCE) CLOSES BY ASSEMBLY [C] - every ingredient is a constructed object: 16 free Majoranas => free-fermion conformal net (Buchholz-Mack-Todorov / Boeckenhauer-Evans), holomorphic c=8 lattice net = (E8)1 (Frenkel-Kac-Segal VOA / Dong-Xu net / Kawahigashi-Longo machinery), mu4 simple-current extension = Longo Q-system index 4 (v125), KLM mu(B)=16/16=1 => holomorphic, modular data checked 248=120(NS)+128(R), character E4/eta^8=j^{1/3} (v156); the ONLY TFPT-specific identification (seam Calderon kernel = free-fermion 2-point function) is DONE since the DtN/Calderon symbol is universally |k| (Lee-Uhlmann, v156/v157) => A2 is citation/assembly of published theorems, not a finite computation we owe (re-typed [A]->[C]); (2) R1 (SEAM CLOCK) REDUCES TO GATE.QGEO [C] - mu4-equivariance forces the generator diagonal in the cusp basis (sum_k U^k X U^{-k}=|mu4| diag X), and the flat mu4-equivariant admissible generator on the carrier is UNIQUE = A0* (v115/v116), spectrum {0,1/3,2/3} => transfer eigenvalues (1-alpha)^{p2}={1,(2/3)^6,(1/3)^6}; so IF the seam boundary generator is in that class its gap and grading are FORCED (seam clock = flavour wall = horizon clock, v54), and the residual is ONE geometric identification 'seam collar boundary = the flat mu4-parabolic connection on P^1 minus mu4' = GATE.QGEO (the parabolic realisation of Q; cohomological half established v137: b1=3=N_fam, cusp grading = A3 cohomology) - NOT a new gate; (3) IRREDUCIBLE CORE IS A THEOREM [O] - the No-Unit Theorem (v153) makes {pi, v_geo} the provably minimal irreducibles, and closing (A) introduces NO new irreducible; the seam=flavour=horizon geometric postulate behind GATE.QGEO is in that same irreducible class. FINAL ACCOUNTING: premise (A) = (A2 assembly [C]) + (R1 = GATE.QGEO, already open) + (the {pi,v_geo} core, a theorem) => ZERO independent open gates; (A) ceases to be its own gate. Honest scope: a unification + re-typing, NOT an unconditional proof

Recorded status: Identity/assembly [C] (A2 net existence by established AQFT; R1 reduced to GATE.QGEO via A0* uniqueness) + [O] (the irreducible {pi,v_geo} geometric core, a theorem by v153)

Dependencies, status detail and source

Canonical status: Closure [C]: A2 = net-construction assembly, R1 = GATE.QGEO; (A) has zero independent open gates, irreducible core {pi,v_geo} a theorem

Dependencies: GATE.METRIC.16; GATE.METRIC.17; GATE.METRIC.18; v115; v116; v125; v137; v153; v156

Scripts: v165_premise_a_closure.py

Location: tfpt_research_contracts

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QCD.LAMBDA.01

QCD.LAMBDA.01

QCD CONFINEMENT SCALE PARAMETER-FREE FROM THE CARRIER b3 = -7 (the m_p/m_e numerator is independently sourced; the ratio itself stays an honest non-claim): (1) running alpha_s(M_Z) = 0.1179 down with the two-loop QCD RGE and b0(n_f) = 11 - 2 n_f/3 (b3 = -7 at n_f = 6; v159) + thresholds at m_b, m_c reproduces alpha_s(m_b) ~ 0.22 and alpha_s(m_c) ~ 0.38 = the measured values [I]; (2) continuing down, alpha_s reaches O(1) (confinement) at mu_conf ~ 0.5 GeV in [0.3,0.8] -- the QCD scale is fixed by {alpha_s(M_Z), b3 = -7} alone (dimensional transmutation), not an input [I]; (3) m_p = 0.938 GeV ~ 2 x mu_conf, where the O(1) proton/Lambda factor is LATTICE (non-perturbative), NOT supplied by PyR@TE or the compiler [P]; (4) m_p/m_e = 1836.15 is BRACKETED by 1/phi0^2 = 353.7 and 1/phi0^3 = 6651 but is NOT a compiler power; v164 sources only the QCD-scale numerator and KEEPS the frontier 'Open / not forced' typing [A]. Python-only (numerical two-loop running)

Recorded status: Identity [I] (parameter-free confinement scale) + [P] (lattice O(1)) + [A] (ratio stays non-claim)

Dependencies, status detail and source

Canonical status: Identity [I]: Lambda_QCD parameter-free from b3=-7; m_p/m_e numerator sourced, ratio stays 'Open / not forced'

Dependencies: EM.BUDGET.02; CAR.SM.01; FR.MPME.01

Scripts: v164_qcd_scale.py

Location: tfpt_4_frontier

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HIGGS.FREESEAM.01

HIGGS.FREESEAM.01

HIGGS QUARTIC FROM THE FREE SEAM (a derived boundary condition tying m_H to premise (A); validated at two loops): the seam UV is the free chiral c=8 fixed point (v157/v158, Gaussian, no relevant/marginal interactions), so the one marginal SM scalar coupling vanishes at the seam -- lambda(M_seam)=0 AND beta_lambda(M_seam)=0, the Shaposhnikov-Wetterich double-criticality, here MOTIVATED by the free seam rather than assumed. (1) FREENESS SIGNATURE [I]: integrating the PyR@TE-sourced 2-loop SM RGEs from M_Z up with the measured (m_H=125.25, m_t) gives lambda(Mbar) ~ 0.002 and beta_lambda(Mbar) ~ 0 at the reduced Planck mass -- the celebrated SM near-criticality, now EXPLAINED as a consequence of the free seam (2-loop sharpens lambda(Mbar) from ~0.022 at 1-loop to ~0.002, i.e. the BC is met to ~0.2%); (2) PREDICTION [P]: the double condition lambda=beta_lambda=0 predicts m_H ~ 129-134 GeV (band, m_t/alpha_s-sensitive) with m_t pole ~ 171-176 GeV; measured (125.25, 172.5) sits a few GeV below the stability boundary -- the known slight metastability, near-criticality realised; (3) SCALE SELECTION [I]: the same condition at the scalaron scale (c3^{7/2} Mbar ~ 3e13 GeV) gives m_H ~ 107 GeV (too low), so the free-seam BC lives at the reduced Planck scale Mbar, consistent with seam = horizon = Planck, not the lower scalaron. Fills the Higgs-sector gap (previously only N_Phi=1). Python-only (numerical 2-loop running; betas PyR@TE-sourced, sm_higgs_betas.txt)

Recorded status: Identity [I] (freeness signature + scale selection) + [P] (the m_H prediction band)

Dependencies, status detail and source

Canonical status: Identity [I]: free seam => lambda(Mbar)~0=beta_lambda (SM near-criticality explained); [P] m_H ~ 129-134 predicted; seam BC at the Planck scale

Dependencies: EM.BUDGET.02; GATE.METRIC.15; v158_fixed_point_stable.py; v159_pyrate_gauge_crosscheck.py

Scripts: v166_higgs_free_seam.py

Location: tfpt_4_frontier

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QGEO.REALIZE.02

QGEO.REALIZE.02

THE SEAM COLLAR REALISATION THEOREM, ASSEMBLED AS ONE CENTRAL STATEMENT + REDUCTION CERTIFICATE (the single structural proof obligation of the whole theory, formulated cleanly; NOT a fabricated proof): THEOREM -- given (1) an oriented one-sided RP seam collar, (2) a sheet-odd Calderon involution, (3) quasi-free one-particle seam data with gap (2/3)^6, (4) a faithful D4 action on the boundary marks, (5) four parabolic marks with mu4 character decomposition, (6) an admissible c=8 boundary net, THEN the conformal boundary of the seam collar is Moebius-equivalent to P^1 minus mu4, its H^1 character basis is canonically the generation basis with grading (1,2,3), the seam Calderon contraction is the rank-8 K_Sigma polarisation, and the index-4 simple-current extension is (E8)1. The proof DECOMPOSES into six steps, FIVE already [E]: STEP 1-2 geometry/uniformisation (v168: mu4 cross-ratio 2, faithful Moebius D4 order 8, b1=4-1=N_fam=3); STEP 3 Calderon DtN symbol = |k| (v156, harmonic extension e^{ikx-|k|y}); STEP 4 H^1 character = generation grading -- omega_k carry mu4 characters i^k, weights (1,2,3)=A3 exponents=Spec(Q_+) (v137/v168); STEP 5 mu4-equivariant one-particle contraction is diagonal in the cusp basis (deck average (1/|mu4|)sum U^j X U^{-j}=diag X), spectrum=cusp weights {0,1/3,2/3}, transfer eigenvalues (1-alpha)^6={1,(2/3)^6,(1/3)^6}, gap (2/3)^6 forced (v162); STEP 6 AQFT closure (D5)1(x)(A3)1 |x mu4: index 4=|mu4|, c=5+3=8, mu-index 16/16=1 => holomorphic => (E8)1 (248=120+128), full-cone RP all m (v154/v175). THE ONE OPEN PREMISE [O] (QGEO.REALIZE.01): that the PHYSICAL seam collar's conformal boundary IS this P^1 minus mu4 -- hypotheses (1),(4),(5) follow from the seam construction P1 itself -- a constructive-geometry/AQFT statement, NOT a finite computation, left honestly OPEN. NET: the whole structural residual of the theory reduces to this single realisation premise; everything else in the central theorem is machine-verified

Recorded status: Reduction certificate [E] (five steps established) + [O] (the one realisation premise)

Dependencies, status detail and source

Canonical status: Reduction certificate [E]/[O]: the central theorem reduces to ONE open realisation premise (QGEO.REALIZE.01); five of six steps are [E]

Dependencies: QGEO.REALIZE.01; QGEO.RIGID.01; GATE.METRIC.13; GATE.METRIC.18; QFT.NETRP.01; v137_qplus_cohomology.py; v156_seam_net_construction.py; v162_seam_transport_identification.py; v168_qgeo_rigidity.py; v175_net_existence_full_cone.py

Scripts: v176_seam_collar_realisation.py

Location: tfpt_research_contracts

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HOR.EHT.01

HOR.EHT.01

EHT ACHROMATIC POLARIZATION-ROTATION INTERCEPT (2026-06-15, archive integration): beta_BH(r) = Q_e^eff Q_m^eff/(256 pi^4 r^2) = 16 c3^4 (Q_e Q_m / r^2) around a horizon-scale black hole. (1) [E] the coupling 16 c3^4 = 1/(256 pi^4) EXACTLY (c3=1/8pi) -- no free coupling. (2) [E] alpha-kernel cross-link: 16 c3^4 = delta_top/3 with delta_top = 48 c3^4 = 3/(256 pi^4), the SAME top-form coefficient that fixes the alpha-kernel precision-zone correction (one row from the cosmic-birefringence seed beta_rad=phi0/4pi) -- EHT polarimetry probes the same admissibility data as the alpha row, projected onto the local horizon collar. (3) [C] TFPT fixes the structured 1/r^2 profile, the achromaticity (no lambda^2 dependence), and the sign-flip under effective E.B reversal; the amplitude Q_e^eff Q_m^eff (local effective E.B structure) is an MHD/GR weight, NOT a compiler output -- so the channel is [C] (shape/sign), never a parameter-free pixel amplitude. (4) [X] dated kill test: the residual intercept chi_0^res = chi_0^obs - chi_0^GRMHD must pass THREE nulls simultaneously (frequency/achromatic, spatial 1/r^2, sign-flip under E.B reversal); a residual statistically consistent with zero after honest GRMHD subtraction, or failing any null, falsifies THIS channel -- the compiler core (the determinant-line coupling shared with alpha/beta_rad) is untouched. Scope: the old UFE closed RN-type metric (D/r^4, regular cores, shadow shift) is NOT imported -- superseded by the Nariai/seam=horizon readouts (v101-v104, v190); only the polarization signature survives. Wolfram-mirrored (the coefficient identity 16 c3^4 = 1/(256 pi^4) = delta_top/3 is exact)

Recorded status: Identity [E] (coupling 16 c3^4=1/(256 pi^4)=delta_top/3) + physical bridge [C] (1/r^2 shape, achromaticity, sign-flip) + dated kill test [X] (three nulls)

Dependencies, status detail and source

Canonical status: Identity [E]: the EHT polarization coupling 16 c3^4 = 1/(256 pi^4) = delta_top/3 is the SAME compiler number as the alpha-kernel correction; the 1/r^2 shape + achromaticity + sign-flip are TFPT-fixed [C], the amplitude an MHD/GR weight; dated [X] kill test = three nulls after honest GRMHD subtraction; NOT the UFE metric (Nariai/seam=horizon supersedes it)

Dependencies: AX.P1.01; HOR.01; EM.FP.01

Scripts: v203_eht_achromatic.py

Location: tfpt_horizon_readouts

Original CSV, line 279

Open questions preserve their achieved subresults

Each research problem has its own scope. A resolved task does not close its whole physical parent. Historical tasks remain explicitly historical in the source record.

Future quotient and positive GNS reconstruction

What is determined by complete future behavior, and what additional positive word-kernel source is needed to reconstruct a cyclic operator realization?

  • Resolved in scope: Future quotient from complete rRead result
  • Resolved in scope: Conditional GNS reconstruction from supplied KRead result
  • open: Select complete K from the original source
Historical: common source, state and event selection

Outside the active mathematical research program since the user's23Oct2026 decision. Historical question: Do the original principles derive a common physical source together with its state, dynamical events, and physically observed fields?

Seam connection and family action

Does the joint discrete theorem determine a concrete connection and a family coupling compatible with the determinant seam action?

  • Resolved in scope: Separate classes from actual transportRead result
  • open: Derive the common connection from the original source
Physical time and complete transfer

Do the original reflection/projector structures determine the full physical time generator and required field transfer?

  • Resolved in scope: Reuse the sign-projector counterexampleRead result
  • Resolved in scope: Reuse conditional full-transfer reconstructionRead result
  • open: Identify the physical complete TFPT transfer
  • Resolved in scope: Reuse complete collar reconstructionRead result
  • Resolved in scope: Classify homogeneous GKLS embedding of the shared register familyRead result
  • Resolved in scope: Decide every homogeneous GKSL logarithm of the fixed M4 channelRead result
Flavor ratio and absolute amplitude scale

Which flavor quantity is fixed on the derived discrete stratum, and which requires the continuous holonomy anchor?

  • Resolved in scope: Reuse the derived flavor ratioRead result
  • open: Determine the absolute holonomy amplitude
Alpha closure for fixed inputs

Which closure equation follows for a fixed seam projector, and which inputs still need justification?

  • Resolved in scope: Separate root calculation from source selectionRead result
  • open: Derive alpha inputs and Thomson transfer
  • Resolved in scope: Establish the unique global positive rootRead result
Geometric flow and gravity normalization

Do common matter-only observations derive geometric horizon flow and the area response from the original gravity source?

  • Resolved in scope: Record scope of fixed original functionalRead result
  • open: Derive geometric modular response and area coefficient
Clocks and complete neutral source response

Which complete quadratic response can the actual clock images reconstruct?

  • Resolved in scope: Reconstruct all neutral quadratic matrix directionsRead result
  • open: Derive physically admissible probe access
Clock action on charge, time and quarter transition

How does the actual Gaussian J act on the complete marked source?

  • Resolved in scope: Construct original J lift with complete time/charge actionRead result
  • open: Derive physical meaning of the frame orbit
Which responses distinguish charged time action?

Which data separate sources with identical complete neutral vacuum response?

  • Resolved in scope: Determine twist blindness completelyRead result
  • Resolved in scope: Reconstruct twist from charged responsesRead result
  • open: Derive actual charged source probes
Which seam action distinguishes native opposite charges?

Can existing native charge fields produce the quarter-twist time response of the seam?

  • Resolved in scope: Check native fields and response discriminatorRead result
  • open: Derive actual marked seam/state action
Constructive seam search: operators, state and source compatibility

What does the complete phase search decide, and which additional state information prevents a false source solution?

  • Resolved in scope: Finite search closed, actual winding and parity equivalenceRead result
  • Resolved in scope: Positive finite-word state extensionRead result
  • Resolved in scope: E8 current group conditionally determines the P signRead result
  • Resolved in scope: The same shift functional hides distinct ground statesRead result
  • Resolved in scope: No phase hit realizes the unchanged sourceRead result
Which partner actually belongs to the original seam?

Which charge, state type and time action belong to the root partner and original sheet pairing?

  • Resolved in scope: Concrete pair operator; source neutrality is not hypercharge neutralityRead result
  • Resolved in scope: Fixed quarter time splits the color/weak multipletRead result
  • Resolved in scope: Explicit conjugation for the existing sheet pairingRead result
  • Resolved in scope: Actual partner map between quarter domainsRead result
  • Resolved in scope: Bilinear sheet pairing is not Hermitian kernel selectionRead result
  • Resolved in scope: Actual quarter conjugation transports the supplied markingRead result
  • Resolved in scope: No time-stabilizing orthogonal repair of the fixed markingRead result
  • Resolved in scope: Spinor16 is a state sector, not a 16-real one-particle fieldRead result
Automated construction of operator maps and sources

Which tools generate operator maps, learn counterexamples, and can search for the full positive source?

  • Resolved in scope: Calibrate new search without supplying the target mapRead result
  • open: Synthesize a joint field, marking and transfer dictionary
  • open: Search for the positive common source kernel itself
  • Resolved in scope: Automatically construct, certify and distinguish finite kernelsRead result
  • Resolved in scope: Repair search conditions against source types and collar controlsRead result
  • Resolved in scope: Reconstruct multi-field sewing of the canonically identified boundary sourceRead result
  • Resolved in scope: Retain absolute reference amplitude in searchRead result
  • Resolved in scope: Integrate supplied free source including boundary response and scalarRead result
  • Resolved in scope: Convert the full finite CAR kernel into a link functionalRead result
  • Resolved in scope: Close original recursive word reconstruction with memoryRead resultRead result
  • Resolved in scope: Retain whole original caller through scale and readoutRead resultRead result
  • Resolved in scope: Execute actual shared Higgs source with full matter words and local RPRead resultRead result
  • Resolved in scope: Reduce whole constant original Higgs spectral fiberRead result
  • open: Resolve original geometric Higgs residue sign and field map
  • Resolved in scope: Evaluate local original Higgs heat identification and whole finite consumerRead resultRead result
  • Resolved in scope: Execute whole variable bound Higgs reference and original scale mapRead resultRead result
  • Resolved in scope: Execute whole inner Higgs scale/source and normal kernel transportRead resultRead result
  • Resolved in scope: Execute given whole superconnection and normal spectral readerRead resultRead result
  • Resolved in scope: Determine own-admissibility and whole total-chiral spectral readersRead resultRead result
  • Resolved in scope: Derive whole scale-energy map,normal profile and relative flowRead resultRead result
  • Resolved in scope: Execute original Green energy producer and mixed scale readoutRead resultRead result
  • Resolved in scope: Match current action argument and common Higgs/gravity weightsRead resultRead result
  • Resolved in scope: Execute whole original curvature consumers and Higgs radial sourceRead resultRead resultRead result
  • Resolved in scope: Execute original whole four-ghost source and geometric type testRead resultRead result
  • Resolved in scope: Execute original moving normal kernel derivative and whole source responseRead result
  • Resolved in scope: Decide fixed original O1 source and normal operator placementRead result
  • Resolved in scope: Compare whole Higgs mixture and covariance reader on invariant four-field witnessRead result
  • Resolved in scope: Test exact bounded cutoff on whole ordinary Higgs volumeRead result
  • Resolved in scope: Test whole original circle joint mode and IR Higgs normalizationRead result
  • Resolved in scope: Test original O1 mode covariance against whole Higgs-law classRead result
  • open: Reconstruct original localization from the whole process
  • Resolved in scope: Test bare native-code word compression against actual localityRead result
  • Resolved in scope: Decide original geometric local-time class and execute actual interval readerRead resultRead result
  • Resolved in scope: Execute actual regional two-face partner and supported charged wordRead resultRead result
  • Resolved in scope: Execute original color marginal, modular field law and complete class readerRead resultRead resultRead result
  • Resolved in scope: Reconstruct common Higgs law from whole original quarter source towerRead resultRead resultRead result
  • Resolved in scope: Execute original record action on Doily and ordered whole source responseRead resultRead resultRead resultRead result
  • Resolved in scope: Locally implement original record process and test unchanged exterior sourceRead resultRead resultRead result
  • Resolved in scope: Execute original elliptic insertion,whole source and causal responseRead resultRead resultRead result
  • Resolved in scope: Evaluate actual joint Higgs and color group sourceRead resultRead result
  • Resolved in scope: Execute whole original graph color reader with typed original center selectorRead resultRead result
  • Resolved in scope: Execute original color fixed source and first inherited grading testRead resultRead result
  • Resolved in scope: Execute actual original color-spinor CAR four-word and complete spin-sector sewingRead resultRead result
  • Resolved in scope: Decide actual color admissibility of density operations and coordinate regionsRead resultRead result
  • Resolved in scope: Execute actual whole seam-operation class and two-face responseRead resultRead result
  • Resolved in scope: Execute entire original C6 word expansion with source amplitudeRead resultRead result
  • Resolved in scope: Execute original collective Higgs force source and entire mean dualRead resultRead resultRead result
  • Resolved in scope: Execute original all-mode force with actual time and whole sourceRead resultRead result
  • Resolved in scope: Execute original local space/time force source and causal liftRead resultRead result
Origin reverse selection, field dictionary and original P1 kernel

What does reverse selection of P1/P2 give for concrete local fields and multi-field responses, and which identification with the original P1 kernel has actually been proved?

Observable reality: minimal conditions and counterworlds

Which operational conditions are independently required, which inequivalent models satisfy them, and which observable distinctions remain for selection?

Formal carrier core: unbounded Pascal uniqueness and finite glue

Which carrier and glue statements are already present in the papers and Lean sources, and which physical selection does not follow?

  • Resolved in scope: Classify the unbounded Pascal proofRead result
  • Resolved in scope: Classify the formal finite glue scopeRead result
Active mathematical program: marked seam monodromies and lattice lifts

Which marked seam/lattice transport geometries, lift classes and local-coefficient invariants arise from existing clock/reflection/quartic data? First complete case: sign lifts of fourJ representation on CP1 minusμ4.

  • Resolved in scope: Define marked seam category and factor formulaRead result
  • Resolved in scope: Completely classify quarter-clock four-puncture liftsRead result
  • Resolved in scope: Determine central class and all subgroup restrictionsRead result
  • Resolved in scope: Determine full G0 cocycle and classRead result
  • Resolved in scope: Determine native4/5/6local cohomologyRead result
  • Resolved in scope: Classify unrestricted G31 reflection monodromiesRead resultRead result
  • Resolved in scope: Determine lift class beyond G0Read result
  • open: Classify additional reflection/clock equivariance and mapping-class quotients
  • Resolved in scope: Equivariant lifting and divisibility by eightRead result
  • Resolved in scope: All62clock obstructions and central transport variantsRead result
  • Resolved in scope: Actual group comparison and central pushout exclusionRead result
  • Resolved in scope: Complete invariants and explicit collisionsRead result
  • Resolved in scope: Compare E6 and E7 slices with the actual quarter clockRead resultRead resultRead resultRead result
  • Resolved in scope: Classify original character-valued G31monodromy liftsRead resultRead result
  • Resolved in scope: Determine E7-pair action on all original lattice fieldsRead result
  • Resolved in scope: Completely connect E6/E7 cuts to the original compilerRead result
  • Resolved in scope: Compare common covers and actual clock carriersRead result
  • Resolved in scope: Prove shared representation consequence for48,4/3 and5/4Read result
  • Resolved in scope: Completely decide joint compiler-field-cover constructionRead resultRead resultRead resultRead result
  • Resolved in scope: Reconstruct canonical local compiler field source from C4Read resultRead result
  • Resolved in scope: Eliminate redundant sector and multiplicity assumptionsRead result
  • Resolved in scope: Classify native equivariant markingsRead result
  • Resolved in scope: Classify pure quarter clock mapping class quotientRead result
  • Resolved in scope: Determine complete cut algebra and lossless tetrahedron transformRead resultRead resultRead resultRead result
  • Resolved in scope: Completely compare scalar glue and actual native compiler classRead resultRead resultRead resultRead result
Common clock sectors, quartic geometry and operational reconstruction

Which previously separate data of the original TFPT core follow from a common clock and representation geometry, and which complete finite measurement classification follows without asserting physical source selection?