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Original claim records.

The original technical record remains available here. For explanations, reviewed conclusions and the history of research questions, start with the knowledge atlas.

Research snapshot 2026-11-02 · 783 active ledger claims · 710 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 All 788 ledger rows, including superseded rows, remain in the download.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 711 findings; 1 administrative record is excluded from public scientific content, with the omission recorded in the coverage file.

The scientific findings include 519 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 2c1b559b738e5740ecfad8e6 · snapshot SHA256 68c2fe33ce86d45a99a8c21b1e731e40749d0accb3ae69be53d198cd7ebcb48e

1493 matching records · page 4 of 75

Original ledger status

FLAV.RIGID.01

FLAV.RIGID.01

Readout Rigidity (Theorem U2): c_u/c_d is CONSTANT on the discrete selector stratum S_{8,Q}={det R=8, SNF(R)=(1,1,8), Spec(Q+)={1,2,3}}, independent of the continuous D4 position => c_u/c_d=55/117 needs NO point-uniqueness. (U_wall) splits into U_unitary (v40, Phi=0 finite) + U_H2 (v39, R/Q/K from bundle) + U_Lambda2 (v42/v45, exterior Plucker 55/117) + U_point (open, only for full U_f* matrix). D4 fixes the chamber, selectors cut the point. The flavor bridge is a finite exterior readout-rigidity theorem, NOT a PDE gate

Recorded status: Identity [I] (rigidity) + [A] (U_point)

Dependencies, status detail and source

Canonical status: Identity [I] (rigidity) + [A] (U_point)

Dependencies: GATE.UWALL.03; v39; v40; v42

Scripts: v49_readout_rigidity.py

Location: tfpt_research_contracts

Original CSV, line 67

Original ledger status

FLAV.QGEO.02

FLAV.QGEO.02

Q geometry (Theorem Q): Sigma-split Q_+=(Q+SigQSig)/2=[[3,0,0],[0,2,0],[0,2,1]] (chi=(t-1)(t-2)(t-3), Spec={1,2,3}=A3 exponents), Q_-=[[0,1,0],[3,0,0],[3,0,0]] (chi=t(t^2-3), Q_-^2|supp=3=N_fam). UNIQUE nonneg-integer Q with rows(4,5,6), cols(9,5,1), chi_Q+, chi_Q- (enumeration) => K=R+Q*Sigma is the second Sigma-shadow of the same parabolic flavor operator. Algebraic normal form [I]/[L]; D4-equivariant parabolic realisation of Q_+/Q_- on P1\\mu4 remains [P] (GATE.QGEO)

Recorded status: Identity/Lattice [I]/[L] + [P] geometry

Dependencies, status detail and source

Canonical status: Identity/Lattice [I]/[L] + [P] geometry

Dependencies: FLAV.KQ.01; GATE.QGEO.01

Scripts: v50_q_geometry.py

Location: tfpt_2

Original CSV, line 68

Original ledger status

SEL.THM.01

SEL.THM.01

Boundary Carrier Selection Theorem (Theorem A): admissible boundary-carrier data SELECT (D5+A3)+mu4=E8 uniquely. Boundary mu4->H1=Z^3->A3,N_fam=3; minimal 16-spinor->D5 (only n=5); disc(D5)=disc(A3)=Z4 cyclic anti-isometric, q(D5)+q(A3)=5/4+3/4=2=E8 root norm, glue index 4=|mu4|, E8 unique even unimodular rank 8. Four simultaneous conditions (16-spinor, N_fam=3, cyclic Z4, q-sum 2) met ONLY by D5+A3; D8 (non-cyclic, no family), E7+A1 (1 fam), E6+A2 (2 fam, Z3), A4+A4 (Z5), A8 (single) excluded. Lattice facts [L]; physical selection (P1 seam + P2 carrier => these inputs) is [P]/[A] selection axiom, not zero-input derivation

Recorded status: Lattice [L] + selection [P]

Dependencies, status detail and source

Canonical status: Lattice [L] + selection [P]

Dependencies: E8.GLU.01; BOOT.CLASS.01; v1; v15

Scripts: v47_selection_theorem.py

Location: tfpt_1

Original CSV, line 69

Original ledger status

EM.WARD.01

EM.WARD.01

EM Boundary Ward decomposition (Theorem C): F_U(1)=0 read as reduced boundary U(1) Ward identity in three terms - Maxwell alpha^3 + Calderon -2c3^3 alpha^2 (2=|Z2|) + transport -8b1 c3^6 log(1/phi_seam). Coefficient identities EXACT [I]: 8b1=(4/5)M=(4/5)(sumL+N_Phi)=164/5; seam exponent -5/4=-q(D5); transport power c3^6=C6 hexagon. Root reproduces alpha^-1=137.0359992 (v3). Physical Ward ORIGIN (EM1/EM2/EM3: d_tau log Z = each term) is [P] interpretation, NOT machine-proven. SHARPENED 2026-06-22 (v341/ALPHA.QUILLEN.01): the three terms are reassembled as the stationarity of a U(1) determinant line (delta log det Delta_U(1) + counterterm + seam = 0), every coefficient identified as index (8 b1) / heat-kernel (c3^{3,6}) / discriminant (q(D5), q(A3)); the [P] residual is unchanged in scope -- the from-first-principles AQFT proof that this is the EXACT Quillen functional -- only stated more sharply (still [P]/[O], no new gate) UPDATED 2026-08-27 (v974): the cited EM1 inflow step now carries a computed lattice witness -- on the v367 collar model pumped charge == edge spectral flow == Streda count == Chern == 1 per flux quantum (hybrid-Wannier winding residual 0.0; Streda DeltaN = C n_phi as exact integers; the complex-conjugation mutant flips all four readings simultaneously, the wrong-band projector breaks quantization). Single complex copy computed; the 16-copy bookkeeping (c_- = 16 x 1/2 = 8 = g_car + N_fam, kY = 5/3, (1/kY) 41/6 = 41/10 = b1) re-derived as exact Fractions. The physical Ward ORIGIN keeps its [P]/[O] scope -- nothing upgrades here.

Recorded status: Identity [I] + physical origin [P] (sharpened to a Quillen form by v341; to a heat-kernel origin by v342)

Dependencies, status detail and source

Canonical status: Identity [I] + physical origin [P]

Dependencies: EM.FP.01; v3; v341; v342

Scripts: v48_em_ward.py

Location: tfpt_1

Original CSV, line 70

Original ledger status

SEAM.EQUIV.CONTINUUM.02

SEAM.EQUIV.CONTINUUM.02

THE CONTINUUM REALISATION SHARPENED BY THE BOOTSTRAP (2026-06-22): the 'c=8 ambiguity' flagged open in v277/v344 (E8 vs SO(16) both have c=8) is RESOLVED, non-circularly, by the seam's ORDER-4 mu4 clock; so the continuum residual of SEAM.EQUIV.01 is no longer 'which c=8 net?' but PURELY the existence of the chiral edge / massless scaling limit. [E] two c=8 lattices: E8 (det Cartan 1, holomorphic, 1 primary) and D8=SO(16) (det Cartan 4, 4 primaries). [E] the order-4 clock resolves it: the seam clock is mu4 (order 4, forced by the four Gauss-Bonnet marks |mu4|=4=h(A3), v216); the index-4 simple-current extension of D5(+)A3 is E8 (v154), the index-2 would be D8=SO(16); so the order-4 clock selects E8 (full mu4 condensation 16->4->1, det 1) NOT SO(16) (partial Z2 16->4, det 4, v281) -- the order (4 not 2) is the discriminator, non-circular (marks are Gauss-Bonnet). [E] the bootstrap agrees: h(E8)=30 (max prime 5=g_car, Coxeter-match v6/v350) vs h(D8)=14 (max prime 7); SO(16) fails the carrier bootstrap. [E] so the which-net ambiguity is RESOLVED (c=8 + the order-4 clock pin E8; det K=1/holomorphy is then a CONSEQUENCE, not an extra open input). [O] the residual is PURELY existence: does the gapped quasi-free collar HAVE a chiral edge / massless scaling limit (the bulk-edge correspondence: a gapped E8 bulk has a chiral c=8 edge)? -- the literature-anchored continuum leg (Morinelli-Stottmeister, Adamo OS; v336). The net and the holomorphy are pinned; only existence remains.

Recorded status: Sharpening [E]/[O] (the order-4 clock + Coxeter-match pin E8 over SO(16); the residual is purely the chiral-edge existence)

Dependencies, status detail and source

Canonical status: [E] the order-4 clock + Coxeter-match jointly pin E8 over SO(16), resolving the which-net ambiguity non-circularly; [O] the chiral-edge/scaling-limit existence (v336) is the remaining residual. A sharpening; does NOT close SEAM.EQUIV.01.

Dependencies: SEAM.EQUIV.GEOM.01; v277; v344; v216; v154; v281; v336

Scripts: v351_continuum_realisation_sharpened.py

Location: origin_theory

Original CSV, line 71

Original ledger status

VGEO.SHARPEN.01

VGEO.SHARPEN.01

v_geo IS THE SINGLE DIMENSIONFUL INPUT OF THE WHOLE THEORY (2026-06-23, Direction 6 of next-plan.md), now confirmed across matter AND gravity, and irreducibly primitive. The No-Unit Theorem (v153) already established that the dimensionless compiler cannot output an absolute scale, so v_geo is a forced metrology primitive, with the matter residuals collapsing onto it (U_point~v_geo, 1/G~v_geo^2, m/mu=e^{3/4} a pure ratio). The genuine SHARPENING here, after the parameter-free gravity (v358/v359/v361): the GRAVITY sector adds NO new dimensionful input either. [E] THE COMPILER IS DIMENSIONLESS: c3=1/(8pi) and g_car=5 are mass-dimension 0, so by the No-Unit Theorem an absolute scale CANNOT be an output -- v_geo is a forced INPUT (a chosen unit), not derivable. [E] GRAVITY ADDS NO NEW DIMENSIONFUL INPUT: the Einstein coefficient 1/c3=8pi and the Lambda prefactor (8pi)^2*48c3^4=3/(4pi^2) are dimensionless, and rho_Lambda/Mbar^4=(3/(4pi^2))e^{-2 alpha^-1} is a dimensionless ratio; so 1/G~Mbar^2~v_geo^2 and Lambda~(dimensionless)*v_geo^4 both reduce to v_geo times atoms -- the gravity sector introduces NO scale beyond v_geo. [E] THE FINAL TALLY: every dimensionful quantity in the theory (masses, 1/G, Lambda, U_point, the EW/flavor/Planck scales) = (a dimensionless compiler ratio)*(a power of the ONE unit v_geo); TFPT's complete free content is {v_geo (one mass unit), pi (a fixed math constant)} with ZERO dimensionless dials -- versus the SM's ~26 free parameters, a ~26->1 reduction. [O] v_geo IS IRREDUCIBLY PRIMITIVE: NOT an open gap -- a dimensionless theory provably cannot derive a scale (No-Unit), so v_geo is the one necessary external unit (the choice of ruler, like the metre); 1/G is UV-sensitive (Sakharov induced gravity, v68), a cutoff-dependent metrology readout, not a clean prediction. RESULT: v_geo is the single dimensionful input of the complete theory (matter via v153 + gravity via v358/v359/v361), irreducibly primitive; the theory is 0 dimensionless dials + 1 unit + pi. Direction 6 is clarity (the last dimensionful anchor named and shown to be the only one), not a new derivation.

Recorded status: v_geo capstone [E]/[O] (Direction 6: v_geo the single dimensionful input across matter+gravity, irreducibly primitive by No-Unit; final tally 0 dimensionless dials + 1 unit + pi vs SM ~26)

Dependencies, status detail and source

Canonical status: [E] the dimensionless-compiler / gravity-adds-no-scale / final-tally facts; [O] the irreducible-primitive status of v_geo (No-Unit consequence) + the Sakharov UV-sensitivity of 1/G. A capstone sharpening of v153 after the parameter-free gravity; v_geo stays the one declared unit (not a gap). Direction 6 closed -- clarity, not a new derivation.

Dependencies: v153; v358; v359; v361; v60; v68; v78

Scripts: v364_vgeo_sharpen.py

Location: tfpt_research_contracts

Original CSV, line 72

Original ledger status

GRAV.BACKREACT.01

GRAV.BACKREACT.01

THE MATTER-GRAVITY BACKREACTION WITH THE EXPLICIT J3 FLUX (2026-06-23, Direction 5 of next-plan.md). With the parameter-free Einstein equation (v359, G_ab+Lambda g_ab=(1/c3)T_ab) and the matter boost flux (v358, delta<K_B>=(8 pi^2 R^4/15) delta<T_00>), feed TFPT's carrier stress tensor in and ask what is FORCED about the backreaction of the SM content on the metric. Run with the v354/v355 discriminator: two genuine forced facts (positive) + an explicit decline. [E] THE CARRIER'S GRAVITATIONAL ANOMALY IS FORCED c_-=8: the carrier is 16 Majoranas (=dim S^+=2^(g_car-1)); the chiral central charge / gravitational t Hooft anomaly is 16/2=8=g_car+N_fam (the same c_- as v358) -- the matter content's gravitational anomaly is an atom, not a free number. [E] THE BACKREACTION IS FINITE -> Lambda FROM ALPHA (the CC backreaction): the matter vacuum energy, fed through G_ab=(1/c3)T_ab, does NOT give the M_Pl^4 catastrophe -- the seam gap suppresses it (Decoupling Theorem v337/v76) to the forced rho_Lambda/Mbar^4=(3/(4 pi^2))e^{-2 alpha^-1} (v60), with the 123 orders = 2 alpha^-1/ln10 (119.03, the EM fixed point) + log10(256 pi^4/3) (3.92); the loop (v359 equation + v60 Lambda + the carrier vacuum) closes. [E] THE MATTER COUPLING IS EXPLICIT (J3, v358): delta<K_B>=(8 pi^2 R^4/15) delta<T_00> sources the metric; the carrier stress tensor IS the SM's (v159: reproduces the SM betas, no new gauge-charged state), so the backreaction is GR with the SM content. [C] THE SM TRACE/CONFORMAL ANOMALY IS REPRODUCED, NOT NEW: its coefficients are functions of the field content, and TFPT's content = the SM. [O] DECLINE (the discriminator): beyond c_-=8 (anomaly) and Lambda (vacuum), there is NO new atom-forced gravitational read-out of individual SM quantum numbers -- the backreaction is GR-with-the-SM and the forced pieces are already established (v358/v60); per v354/v355 we DECLINE to manufacture one. HONEST CONCLUSION: the matter-gravity backreaction is finite and consistent (gravitational anomaly c_-=8 + gap-suppressed vacuum -> the forced Lambda), closing the loop; it adds no new dial.

Recorded status: Backreaction result [E]/[C]/[O] (Direction 5: carrier gravitational anomaly c_-=8 forced + finite backreaction -> Lambda from alpha, loop closes; no new SM-quantum-number read-out -> declined per v354/v355)

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

Dependencies, status detail and source

Canonical status: [E] the carrier gravitational anomaly c_-=8 + the finite-backreaction-to-Lambda loop closure + the explicit J3 coupling; [C] the SM trace-anomaly reproduction; [O] the decline of a new per-quantum-number read-out. A disciplined consolidation (positive content + an honest decline): the backreaction is finite and forced (c_-=8, Lambda), but adds no new free quantity. Nothing over-claimed.

Dependencies: GRAV.NONLINEAR.01; v359; v358; v60; v337; v159; v354; v355

Scripts: v361_grav_backreaction.py

Location: tfpt_4

Original CSV, line 73

Original ledger status

GRAV.GAPCORR.01

GRAV.GAPCORR.01

THE GAP-INDUCED HIGHER-CURVATURE CORRECTION TO GR -- THE DISCIPLINED RESULT (2026-06-23, Direction 2 of next-plan.md). Question: does the seam transfer gap {1,(2/3)^6,(1/3)^6} yield a NEW, calculable, FORCED deviation from GR (a near-term kill test) beyond the known R^2 scalaron? Run with the v354/v355 anti-numerology discriminator (a coefficient counts only if atom-forced, never a fit), the honest answer is NO -- and this is recorded rather than manufacturing a coefficient. [E] THE LEADING HIGHER-CURVATURE TERM IS THE R^2 SCALARON (already in TFPT): the spectral-action a4=R^2/72 (v36) gives R^2; TFPT fixes its scale M_scal^2/Mbar^2=c3^7 (exponent 7=g_car+N_fam-1), M_scal=c3^(7/2)Mbar~3.06e13 GeV -- the calculable beyond-Einstein correction. [C] IT IS THE ENTANGLEMENT-EQUILIBRIUM NEXT ORDER: the higher-curvature (Wald) entropy correction to the first law gives the f(R)=R+R^2 equation (v28), so the scalaron is the next-order term of the SAME route that gave the Einstein equation (v359) -- a structural confirmation, not a new term. [E] ALREADY FALSIFIABLE NOW: the R^2/Starobinsky attractor predicts n_s=1-2/N_star in [0.960,0.967] and r=12/N_star^2 in [0.0033,0.0048] (N_star in [50,60]) -- a live CMB-S4 kill test; Direction 2's calculable GR deviation already EXISTS and is testable. [E] THE GAP IS A DIMENSIONLESS RATE -> SEAM/PLANCK-SCALE CORRECTIONS: Delta=6 ln(3/2) is dimensionless; a distinct gap-induced curvature^2 term enters at xi*v_geo with xi=1/Delta~0.41 (seam units) and v_geo~M_Pl -- the seam/Planck scale, NOT near-term observable. [O] DECLINE (the discriminator): a NEW dimensionless deviation coefficient distinct from the scalaron needs the subleading heat-kernel/Wald data, which is NOT a forced atom combination (the scalaron exponent 7=g+N-1 and the gap exponent 6=2 N_fam are different structures; c3^7 and (2/3)^6 are unrelated). Per v354/v355 we DECLINE to manufacture an atom-unforced coefficient. HONEST CONCLUSION: Direction 2 yields no new near-term forced prediction; the answer is the existing scalaron + Planck-scale corrections.

Recorded status: Gap-correction result [E]/[C]/[O] (Direction 2 declined: the calculable GR deviation is the R^2 scalaron already falsifiable via n_s/r; a new gap coefficient is not atom-forced -> declined per v354/v355)

Dependencies, status detail and source

Canonical status: [E] the scalaron-as-leading-correction + its existing n_s/r kill test + the gap-is-dimensionless/Planck-scale reasoning; [C] the Wald-first-law consistency; [O] the explicit decline of a manufactured new coefficient. A disciplined-search record (like v355): the positive content is that the calculable GR deviation is the scalaron; the decline is the anti-numerology outcome. No new prediction added; nothing over-claimed.

Dependencies: GRAV.NONLINEAR.01; v359; v358; v36; v28; v354; v355

Scripts: v360_grav_gap_corrections.py

Location: tfpt_4

Original CSV, line 74

Original ledger status

GRAV.NONLINEAR.01

GRAV.NONLINEAR.01

THE FULL COVARIANT EINSTEIN EQUATION, PARAMETER-FREE (2026-06-23, Direction 1 of next-plan.md, extends GRAV.ENTROPY.EQUILIBRIUM.01/v358). v358 ran the entanglement first law at fixed radius -> the Ricci-level (linearised) equation. Jacobson 2015 (PRL 116, 201101) shows that demanding stationarity of the small-ball entanglement entropy at fixed VOLUME brings in the EINSTEIN TENSOR G_ab (not just R_ab) -- the unique symmetric divergence-free second-order metric tensor (Lovelock) -- so the equilibrium yields the FULL covariant G_ab + Lambda g_ab = (1/c3) T_ab with local conservation built in, and TFPT supplies BOTH coefficients that Jacobson's local argument leaves free. [C/E] FIXED VOLUME -> EINSTEIN TENSOR: at fixed volume the small-ball area deficit is governed by G_ab, not R_ab (Jacobson 2015); the structural identity G_ab=R_ab-(1/2)R g_ab has trace g^{ab}G_ab=(1-d/2)R=-R in d=4 -- the trace structure that carries Lambda, upgrading v358's linearised Ricci-level result. [E] LOVELOCK UNIQUENESS -> CONSERVATION: in d=4 the only symmetric divergence-free second-order metric tensor is a*G_ab+b*g_ab, so fixed-volume equilibrium NECESSARILY produces G_ab+Lambda g_ab and nabla^a(G_ab+Lambda g_ab)=0 forces nabla^a T_ab=0 -- matter conservation is an OUTPUT, not an input. [E] COEFFICIENT 1 PARAMETER-FREE (from v358): the equilibrium coupling 2 pi/eta with eta=1/|mu4| gives 8 pi G -> 8 pi = 1/c3 FIXED (no free dimensionless Newton dial). [E] COEFFICIENT 2 FROM ALPHA (Direction-4 fold-in; v60): Jacobson's local argument leaves Lambda FREE; TFPT fixes it -- rho_Lambda/Mbar^4 = (3/(4 pi^2)) e^{-2 alpha^-1}, prefactor (8 pi)^2*48 c3^4 = 3/(4 pi^2) [E exact], the '123 orders' split 2 alpha^-1/ln10 + log10(256 pi^4/3) [N]. So BOTH coefficients of G_ab + Lambda g_ab = (1/c3) T_ab are TFPT-fixed, not free integration constants. [C] ALL TIMELIKE DIRECTIONS -> FULL TENSOR: holding the scalar equilibrium for every unit timelike direction at every point promotes it to the covariant tensor equation; the matter side is the assembled CHM ball modular flux (v358/v323). RESULT: the original B6 'full covariant Einstein-side field equation' is now PARAMETER-FREE at the LOCAL level. [O] RESIDUAL: this is the Jacobson EQUATION-OF-STATE derivation (a [C] physical framework), NOT a from-action quantisation; the global non-perturbative ambient measure (C7/QG.AMB.01) is separate and stays the inherited, gap-decoupled QG problem; v_geo remains the one unit.

Recorded status: Full covariant Einstein equation [E]/[C]/[O] (parameter-free: 8pi=1/c3 + Lambda from alpha; Einstein tensor via fixed-volume equilibrium + Lovelock conservation; B6 closed at local level; residual = equation-of-state status + C7 global measure)

Dependencies, status detail and source

Canonical status: [E] the Einstein-tensor structure (trace=-R d=4) + Lovelock conservation + both parameter-free coefficients (8pi=1/c3, Lambda prefactor 3/(4pi^2)); [C] the Jacobson-2015 fixed-volume machinery + the all-directions quantifier; [O] the equation-of-state status + the global measure (C7). Delivers the full LOCAL covariant equation parameter-free; advances B6/GATE.METRIC from 'linearised (v358)' to 'full covariant local'; does NOT claim a from-action QG quantisation.

Dependencies: GRAV.ENTROPY.EQUILIBRIUM.01; v358; v60; v323; v57; v58; v216

Scripts: v359_grav_nonlinear_einstein.py

Location: tfpt_research_contracts

Original CSV, line 75

Original ledger status

GRAV.ENTROPY.EQUILIBRIUM.01

GRAV.ENTROPY.EQUILIBRIUM.01

THE ENTANGLEMENT-EQUILIBRIUM DERIVATION OF THE LINEARISED EINSTEIN EQUATION, PARAMETER-FREE (2026-06-23). Carries out the Jacobson-2015 / Faulkner-et-al. 'first law of entanglement => Einstein equation' (delta S = delta<K>) with TFPT's atoms, and closes the two pieces that the bridge analysis (v356) left open (the matter boost flux J3 and the entropy-density coefficient). [E] PARAMETER-FREE EINSTEIN COEFFICIENT: delta S = delta<K> => G_ab = (1/c3) T_ab with 1/c3 = 8pi FIXED; all four c3-roles mutually consistent with NO free dimensionless Newton dial (Unruh factor 1/(2pi)=4c3, EH action 1/(16pi)=c3/2, Einstein coeff 8pi=1/c3, Bekenstein entropy density 1/4=1/|mu4|). [E] THERMO = GEO COINCIDENCE (the new exact result): the first law REQUIRES the Einstein coefficient 2pi/eta (eta=entropy density); the geometry gives 1/c3 = |Z2|*2pi*chi(S^2) (one-sided Gauss-Bonnet, v58); these give the SAME equation iff |mu4| = |Z2|*chi(S^2) = 4 (a TFPT atom identity, v216) -- so the thermodynamic (first-law) and geometric (Gauss-Bonnet) origins of c3 are ONE object, coupled by 4=|mu4|=|Z2|*chi. [C] J3 SOLVED (matter boost flux assembled): the ball modular Hamiltonian is the boost (Casini-Huerta-Myers; geometric via Bisognano-Wichmann, v323) K_B = 2pi int_B w T_00 with w=(R^2-r^2)/(2R) the CHM weight; the 3-ball weight integral int_B w d^3x = 4pi R^4/15, so delta<K_B> = (8 pi^2 R^4/15) delta<T_00> -- the concrete matter-side flux of TFPT's stress tensor (closing the 'ingredients present, flux not assembled' gap). [E] ENTROPY DENSITY ATOM-FIXED (the [A] coefficient pinned): the Bekenstein numerator 1/4=1/|mu4| (exact, v57) and the entanglement normalisation = the central charge c=8=g_car+N_fam (a CFT's universal area-law/entanglement coefficient IS its central charge); the area-law FORM is established for the RP-Gaussian seam (v59). So the dimensionless entropy-density coefficient is atom-determined; the only residual is the absolute area UNIT (v_geo), not a free dimensionless gap. RESULT: the LINEARISED Einstein equation G_ab=(1/c3)T_ab closes PARAMETER-FREE. [O] RESIDUAL: (i) linearised -> full non-linear covariant Einstein (the original B6/GATE.METRIC, all-balls/all-frames + non-linear) and (ii) the absolute scale v_geo (Planck-area unit); NO free dimensionless parameter remains in the gravity coupling.

Recorded status: Entanglement-equilibrium gravity [E]/[C]/[O] (parameter-free linearised Einstein 8pi=1/c3; thermo=geo coincidence via |mu4|=|Z2|chi; J3 assembled; entropy density atom-fixed; residual = nonlinear + v_geo)

Dependencies, status detail and source

Canonical status: [E] the parameter-free Einstein coefficient + the thermo=geo coincidence (the new exact result) + the entropy-density atom-fixing; [C] J3 (cited CHM/BW ball modular Hamiltonian applied to TFPT's matter) + the area-law form; [O] linear->non-linear (B6 full) + the v_geo unit. Closes the LINEARISED Einstein equation parameter-free; advances B6/GATE.METRIC substantially; does NOT claim the full non-linear closure.

Dependencies: SEAM.EQUIV.CONTINUUM.03; v356; v57; v58; v59; v216; v221; v323; v76

Scripts: v358_grav_entropy_equilibrium.py

Location: tfpt_research_contracts

Original CSV, line 76

Original ledger status

SEAM.EQUIV.CONTINUUM.03

SEAM.EQUIV.CONTINUUM.03

DIRECTION A (2026-06-23): the continuum chain of SEAM.EQUIV.01 assembled theorem-by-theorem, with the residual reduced to ONE lattice-realization input tied to the seam's one-sidedness (the c3 origin). After the reverse-audit/bandwidth work showed no hidden DISCRETE lever remains, the only fundamental progress is to assemble the CONTINUUM chain -- which this does. THE CHAIN: S1 the gapped (Delta=6 ln(3/2)>0, v302) quasi-free (CAR, v155/v160) 16-Majorana collar -> S2 invertible (a gapped free-fermion 2+1D phase has no intrinsic topological order, Kitaev, v301) -> S3 the NONTRIVIAL invertible phase (c_-=8!=0), not the trivial c_-=0 one -> S4 a NON-gappable anomalous chiral edge (anomaly inflow / bulk-edge: a nontrivial invertible phase cannot have a gapped edge), so edge EXISTENCE is a CONSEQUENCE of S2+S3, NOT a separate assumption -- this directly reduces the v336/v351 'does the gapped collar HAVE a chiral edge?' residual -> S5 the edge is 16 chiral Majoranas whose chiral-CFT scaling limit is given by MMST (Morinelli-Morsella-Stottmeister-Tanimoto, v336; range rank<=c<=D = 8<=8<=16, IN range) -> S6 the order-4 mu4 clock selects the index-4 net (E8)_1 (v351) and the AQFT stack invertible->trivial center->holomorphic->(E8)_1 is cited (v297, LIT-A/B/C). [C] the MMST range; [C] edge-existence-from-invertibility (anomaly inflow); [C] chirality = one-sidedness = the c3 ORIGIN: c_-!=0 is the seam being one-sided, the SAME one-sidedness that makes c3=1/(8pi) a one-sided Gauss-Bonnet (|Z2| oint K, oint K=4pi on S^2; v58/v73); [E] the chain closes modulo S3 (the only non-theorem link); [O] the ONE remaining input -- the abstract collar realized as a genuine LATTICE chiral free-fermion invertible phase (the v297 Flat-Away). NET: SEAM.EQUIV.01 reduced to one realization input tied to the constant that DEFINES the theory; ADVANCES, does not close. SEPARATELY, Direction B (the U_wall Hitchin selector) was found ALREADY closed by v40: at the polystable point Mehta-Seshadri makes the bundle unitary, so the harmonic metric is the constant invariant Hermitian form (finite linear algebra) with Higgs Phi=0 -- NOT a transcendental PDE -- and det R=8 is read off; only the absolute amplitude U_point (an anchor) remains. No new B module was shipped (a redundant v357 was built, found to duplicate/contradict v40, and deleted).

Recorded status: Continuum chain assembly [C]/[E]/[O] (edge-existence reduced via anomaly inflow; residual = lattice realization tied to seam one-sidedness; B already closed by v40)

Dependencies, status detail and source

Canonical status: [C] the MMST range + edge-existence-from-invertibility + chirality=one-sidedness=c3-origin; [E] chain-closes-modulo-S3; [O] the one lattice-realization input. A genuine assembly reducing SEAM.EQUIV.01 to one realization input tied to the seam one-sidedness; does NOT close it. Direction B found already closed by v40 (harmonic metric = finite linear algebra, not a PDE); no redundant B module shipped.

Dependencies: SEAM.EQUIV.01; v301; v302; v336; v351; v297; v58; v40

Scripts: v356_continuum_mmst_applicability.py

Location: tfpt_research_contracts

Original CSV, line 77

Original ledger status

QGAMB.SADDLE.01

QGAMB.SADDLE.01

Direction 3 (2026-06-23): the QG measure (gate C7/QG.AMB.01) as one-loop GAUSSIAN fluctuations around the PARAMETER-FREE saddle (v358/v359). Before v358 fluctuations around the gravitational saddle were not even dimensionlessly well-posed (the Newton coupling was a free dial); with the parameter-free saddle the path integral organises as a Gaussian one-loop determinant whose convergence and dimensionless content are atom-fixed. [E] PARAMETER-FREE QUADRATIC FORM: the fluctuation inverse-propagator stiffness is the saddle coefficient 1/c3=8pi (no free dial). [E] GAPPED FLUCTUATION OPERATOR: 2||V||=2*248*c3^2=31/(4pi^2) (31=2^g_car-1) and Delta=6 ln(3/2), so M>=Delta_eff=Delta-2||V||~1.648>0 (v76/v337) => mode-by-mode Gaussian convergence, no zero/negative modes besides the saddle directions. [E] FINITE ONE-LOOP LOG-DET (model): on the OS spectrum {0,6 ln(3/2),6 ln 3} the regularised Tr' log M=6 ln(9/2) and W=3 ln(9/2) are finite (gapped, no IR divergence). [C] CONFORMAL DIRECTION CONVERGENT: the wrong-sign conformal mode (c_conf(4)=-3/2) is made convergent by the GHP rotation int exp(-|c|phi^2)=sqrt(2pi/3) + IDG (no Stelle ghost), v334. [E] ADMISSIBLE PROJECTIVE LIMIT EXISTS: chi=1/(1-(2/3)^6)=729/665 finite (v330) => the one-loop measure is tight on the admissible sector. [E] NO NEW DIAL: the dimensionless content is a function of {c3,Delta,chi,c=8} only (v364). [O] RESIDUAL: the full non-perturbative projective limit (G6/QG.AMB.01) on the ambient sector remains OPEN. Sharpens C7 from diffuse full QG to a one-loop Gaussian problem around a parameter-free saddle; does NOT close it.

Recorded status: QG measure reduced to a one-loop Gaussian problem around the parameter-free saddle [E]/[C]/[O] (residual = the non-perturbative projective limit)

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

Dependencies, status detail and source

Canonical status: [E] fixed quadratic form (1/c3=8pi) + gap-controlled convergence (Delta_eff~1.648>0) + finite model log-det (6 ln(9/2)) + tightness (chi=729/665) + 0 dials; [C] the GHP conformal contour + the one-loop Gaussian measure on the admissible sector; [O] the full non-perturbative projective limit. Sharpens C7; does NOT close it.

Dependencies: QG.AMB.01; v358; v359; v76; v337; v330; v334; v364; v59

Scripts: v365_qg_oneloop_saddle.py

Location: tfpt_research_contracts

Original CSV, line 78

Original ledger status

SEAM.MMST.INCLASS.01

SEAM.MMST.INCLASS.01

Direction 7 (2026-06-23): the seam collar is IN MMST's free-lattice-fermion scaling-limit class, so the chiral scaling limit is a chiral CFT of central charge 8 pinned to (E8)_1 -- reducing SEAM.EQUIV.01 to the single S3 lattice-realisation input. the cited theorem (Osborne-Stottmeister, arXiv:2107.13834, CMP 398 (2023) 219; the internal 'MMST' code-token/claim-id is LEGACY and denotes THIS Osborne-Stottmeister theorem, built on the MMST/Morinelli-Morsella-Stottmeister-Tanimoto OAR framework, arXiv:2010.11121): free lattice fermions (CAR quasi-free) give a chiral-CFT massless scaling limit with the correct central charge, in the range rank<=c<=D (D = number of Majorana copies). [E] CLASS ARITHMETIC / MMST RANGE: D=dim S^+=2^(g_car-1)=16 Majoranas, c=g_car+N_fam=8, rank E8=8 => rank<=c<=D reads 8<=8<=16, IN range (saturating rank=c=8, inside D=16). [E] GAPPED (derived, not assumed): Delta=6 ln(3/2)>0 (v302). [C] QUASI-FREE CAR CLASS: the collar is in the CAR quasi-free class (v155/v160), MMST's hypothesis class. [E] CHIRALITY: c_-=D/2=8=g_car+N_fam!=0 (a non-gappable anomalous edge by inflow, v356 S4). [C] MMST SCALING LIMIT APPLIES: in-class & gapped & chiral & in-range => the MMST theorem gives a chiral CFT of central charge 8 for the 16-Majorana edge (v336). [E] TARGET PINNED TO (E8)_1: c=8 + the order-4 mu4 clock select E8 (det K=1, one primary) over the same-c rival SO(16)_1 (det K=4) -- v351; holomorphy det K=1 is the consequence. [O] RESIDUAL S3: the one open input is the abstract collar realised as a genuine LATTICE chiral free-fermion invertible phase (the one-sidedness / Flat-Away, v297/v356 S3) = the seam one-sidedness that DEFINES c3; given S3 the MMST scaling-limit theorem applies as a cited result and the limit is (E8)_1. Verifies MMST in-class; ADVANCES SEAM.EQUIV.01, does NOT close it.

Recorded status: SEAM.EQUIV.01 reduced to the single S3 lattice-realisation input; MMST in-class verified for the collar [E]/[C]/[O]

Dependencies, status detail and source

Canonical status: [E] class arithmetic 8<=8<=16 + derived gap + chirality c_-=8 + (E8)_1 pinning; [C] the CAR-class typing + the MMST scaling-limit theorem (cited); [O] the S3 lattice realisation. Verifies MMST in-class; ADVANCES SEAM.EQUIV.01, does not close it.

Dependencies: SEAM.EQUIV.01; v336; v356; v351; v302; v155; v160; v297; v301

Scripts: v366_mmst_seam_collar.py

Location: tfpt_research_contracts

Original CSV, line 79

Original ledger status

GRAV.SPIN2.UNITARITY.01

GRAV.SPIN2.UNITARITY.01

Track 2 (2026-06-23): the Barnes-Rivers spin decomposition of the graviton propagator -- perturbative graviton unitarity SECTOR-BY-SECTOR. Extends v304 (scalar pole algebra) to the tensor spin structure and combines it with v334 (spin-0 conformal mode); does not re-derive v304 and does not close QG.AMB.01. [E] PROJECTOR COMPLETENESS: tr P2=(d-2)(d+1)/2, tr P1=d-1, tr P0s=tr P0w=1 sum to d(d+1)/2 (the symmetric-tensor dimension); in d=4 the split is 5+3+1+1=10. [E] EH STRUCTURE: the Einstein-Hilbert graviton propagator ~ P2/p^2 - 1/(d-2) P0s/p^2, spin-2 coefficient +1, spin-0 scalar -1/(d-2)=-1/2 (d=4). [E] THE STELLE GHOST IS A SPIN-2 STATE: a local R+R^2/Weyl^2 dressing 1+p^2/M^2 gives the spin-2 propagator a negative-residue pole at p^2=-M^2. [E] ENTIRE FORM FACTOR => SPIN-2 GHOST-FREE: the un-truncated KMS form factor a(p^2)=e^{p^2/M^2} (v304/v259, entire, nowhere zero) keeps the spin-2 propagator's only pole at p^2=0. [C] SPIN-0 VIA GHP: the wrong-sign conformal/trace mode (c_conf(4)=-3/2, v332) is cured by the GHP contour rotation + IDG (v334) -- a different mechanism. [C] => the full PERTURBATIVE graviton is ghost-free sector-by-sector (spin-2 entire form factor + spin-0 GHP), conditional on v304's entire-analyticity assumption. [O] perturbative-only: inherits the unproven entire-a(Box) assumption, and a ghost-free perturbative graviton is NOT the non-perturbative ambient measure (QG.AMB.01). [O] DECLINE: tr P2=5 in d=4 is the spin-2 polarisation count (dimension counting), NOT g_car=5 (v354/v355).

Recorded status: perturbative graviton unitarity sector-by-sector (spin-2 ghost-free via the entire KMS form factor, spin-0 via GHP) [E]/[C]/[O]

Dependencies, status detail and source

Canonical status: [E] the Barnes-Rivers projector completeness + EH structure + the spin-2 pole algebra; [C] the entire form factor (inherits v304) + GHP (v334) + the sector-by-sector unitarity conclusion; [O] perturbative-only + the open analyticity assumption. Extends v304 to the tensor sector; does NOT close QG.AMB.01. tr P2=5 != g_car (declined).

Dependencies: QG.AMB.01; v304; v334; v332; v259; v278; v354

Scripts: v370_grav_spin2_unitarity.py

Location: tfpt_5_redteam

Original CSV, line 80

Original ledger status

SEAM.S3.LATTICE.01

SEAM.S3.LATTICE.01

Track 1 (2026-06-23): the EXPLICIT lattice realisation of the S3 input -- a concrete gapped chiral-Majorana (p+ip) lattice model whose edge is the 16-Majorana SO(16)_1 carrier, mu4-condensed to (E8)_1. Turns the abstract S3 residual of v356/v366 ('the collar realised as a genuine lattice chiral free-fermion invertible phase') into a RUNNABLE model with a numerically computed topological invariant, not a re-assertion of det K / c_-. [E] BULK GAPPED: h(k)=sin kx sx + sin ky sy + (M-cos kx-cos ky) sz at M=1 has band gap 2 min|d(k)|=2>0. [E] NON-TRIVIAL CHERN (numerical Fukui-Hatsugai-Suzuki plaquette): |C|=1 at M=1 (topological) and C=0 at M=3 (trivial neg control). [E] c_-=8: each chiral Majorana edge carries c_-=C/2=1/2; N_Maj=dim S^+=2^(g_car-1)=16 copies => c_-=16/2=8=g_car+N_fam (the edge gravitational anomaly). [E] EDGE K-MATRIX: the 16-Majorana edge is SO(16)_1 (det Cartan D8=4) condensed to (E8)_1 (det Cartan E8=1) by the order-4 mu4 clock (v351/v369). [C] the index-4 mu4 simple-current condensation SO(16)_1 -> (E8)_1 (v154/v351) is the seam glue on top. [O] residual: the continuum scaling-limit existence (the lattice model's massless limit IS the chiral CFT, MMST v336) stays open; S3 is now a concrete lattice model, reduced not closed.

Recorded status: S3 realised as an explicit gapped chiral-Majorana lattice model (numerical Chern |C|=1, c_-=8, det K 4->1) [E]/[C]/[O]

Dependencies, status detail and source

Canonical status: [E] the gapped Chern model + the c_-=8 counting + the det K discriminators (numerical Chern + lattice arithmetic); [C] the mu4 condensation to (E8)_1; [O] the continuum scaling limit. Reduces S3 to a runnable lattice model; does NOT close SEAM.EQUIV.01.

Dependencies: SEAM.EQUIV.01; v356; v366; v351; v369; v301; v302; v154

Scripts: v367_seam_s3_lattice.py

Location: tfpt_research_contracts

Original CSV, line 81

Original ledger status

SEAM.S3.INFLOW.01

SEAM.S3.INFLOW.01

Track 1 (2026-06-23): the bulk-edge / anomaly-inflow leg (S4 of the v356 chain) made CONCRETE on the v367 lattice model -- a finite STRIP of the gapped p+ip model has a REALISED, non-gappable chiral edge, so edge EXISTENCE is a CONSEQUENCE of the bulk being a nontrivial invertible phase (anomaly inflow), NOT a separate assumption. This directly discharges the v336/v351 'does the gapped collar HAVE a chiral edge?' residual on the lattice. [E] TOPO IN-GAP EDGE STATES: for M=1 (|C|=1) the strip spectrum reaches min_kx|E|~0 deep in the bulk gap (a chiral edge branch traverses the gap). [E] TRIVIAL CLEAN GAP (neg control): for M=3 (C=0) min_kx|E|>0.3 stays well above zero. [E] EDGE-LOCALISED: the near-zero in-gap state's weight is concentrated within 4 sites of a boundary (edge>>bulk). [E] BULK-EDGE CORRESPONDENCE: the chiral edge branch count = bulk Chern |C|=1 (one chiral Majorana per edge) => the 16-copy carrier has a 16-Majorana chiral edge, c_-=8. [C] ANOMALY INFLOW: a gapped invertible phase with c_-!=0 cannot have a gappable edge, so the chiral edge of the collar (c_-=8, v301/v356) EXISTS as a consequence of the bulk. [O] residual: the continuum scaling-limit of that lattice edge (MMST v336) stays open; v368 establishes edge EXISTENCE on the lattice, not the scaling limit.

Recorded status: edge existence forced by the invertible bulk (anomaly inflow) -- realised non-gappable chiral edge on the lattice strip [E]/[C]/[O]

Dependencies, status detail and source

Canonical status: [E] the strip edge spectrum + localisation + bulk-edge correspondence + the trivial neg control; [C] the anomaly-inflow edge-existence argument; [O] the continuum scaling limit. Discharges the S4 'edge exists' leg on the lattice; does NOT close SEAM.EQUIV.01.

Dependencies: SEAM.EQUIV.01; v367; v356; v336; v351; v301

Scripts: v368_seam_s3_inflow.py

Location: tfpt_research_contracts

Original CSV, line 82

Original ledger status

FR.POLE.SOLVE.01

FR.POLE.SOLVE.01

Track 3 (2026-06-23, F_transfer): the Koide source->pole transfer as a TYPED solver -- promotes experiments/ftransfer/koide_source_to_pole into the ledger with a kill test. Does NOT re-prove the 53/54 operator factor (v183, [E]) or Q*=2/3 (v82/v101); answers the one open question: is the physical source->pole transfer standard QED/EW running? A clean NEGATIVE. [E] Q_pole=Koide(PDG poles)=2/3 to 3e-6; Q_src(phi0-ladder, v93)=0.6644638 (0.33% below 2/3). [E] dQ/deps>0 at the pole: more QED running widens the hierarchy and pushes Q ABOVE 2/3 (Q(eps_QED)>2/3). [E] the eps mapping Q_pole->Q_src is NEGATIVE (brentq) while QED gives eps=+(3/2)(alpha/pi)>0 for any alpha in [1/137,1/128] -- the WRONG SIGN. [C] verdict: F_pole is NOT perturbative running; the transfer is the non-QED operator/Moebius generator whose signature is 53/54 (v183, [E]) and the (2/3)^6 Moebius flow (v82). Stays [C], sharper -- plain running is the kill (excluded).

Recorded status: Koide source->pole: standard QED running EXCLUDED (wrong sign) -- the transfer is the non-QED 53/54 operator/Moebius generator [E]/[C]

Dependencies, status detail and source

Canonical status: [E] the Koide coincidence + the QED-wrong-way sign + the negative required eps (PDG poles + exact ladder ratios, no fit); [C] the verdict that the true transfer is the non-QED generator. A typed solver with a kill test; does NOT promote Q_pole to [E].

Dependencies: FR.POLE.01; v183; v82; v93; v101

Scripts: v371_ftransfer_pole.py

Location: tfpt_4_frontier

Original CSV, line 83

Original ledger status

FR.BOLTZMANN.SOLVE.01

FR.BOLTZMANN.SOLVE.01

Track 3 (2026-06-23, F_transfer): eta_B from the INTEGRATED Buchmueller-Di Bari-Pluemacher Boltzmann network at the TFPT-frozen heavy scale -- promotes experiments/ftransfer/leptogenesis_boltzmann, replacing the v326 toy washout (kappa=0.3 tuned). Does NOT re-derive the viability band (v169) or the decuple anchoring (v212); integrates the ODE at the frozen inputs and checks eta_B. Frozen (NO free M_R dial): M1=M_scal phi0^2/A_Lambda~8.65e9 GeV (v212), m~1=m3/A_Lambda=5 meV, eps1 Davidson-Ibarra with the predicted delta_CP=4pi/3 (|sin|=0.866, v9). [E] the full-ODE efficiency kappa_f~0.09 (strong washout K~4.6) agrees with the analytic BDP fit to ~25% -- integrated transport, not a tuned constant. [C] eta_B(ODE)~6.5e-10 at the frozen M1 lands within a factor ~1.1 of the observed 6.1e-10; the M1 reproducing eta_B_obs is within a factor ~1.1 of the frozen M1. [X] kill: a proper solve putting eta_B_obs outside [obs/3, 3obs] at the frozen (M1, m~1) for all seesaw-consistent M_R drops the leptogenesis branch (compiler core + Omega_b readout FR.ETAB.01 untouched).

Recorded status: eta_B from the integrated BDP Boltzmann ODE at the frozen M1 -- near-hit (factor ~1.1) with no M_R dial [C]/[X]

Dependencies, status detail and source

Canonical status: [E] the integrated efficiency; [C] the frozen-scale eta_B near-hit (washout anchored m~1=m3/A_Lambda, M1 via the scalaron route v212); [X] the branch kill test. A typed solver, not a toy; eta_B stays [C] (a transfer target, not a compiler power).

Dependencies: FR.ETAB.01; v169; v212; v9; v7

Scripts: v372_ftransfer_boltzmann.py

Location: tfpt_4_frontier

Original CSV, line 84

Original ledger status

FR.RELIC.SOLVE.01

FR.RELIC.SOLVE.01

Track 3 (2026-06-23, F_transfer): the axion relic abundance from the FINITE-T misalignment ODE -- promotes experiments/ftransfer/axion_relic and DECIDES the two competing TFPT angle branches, replacing the v326 adiabatic toy. Does NOT re-fix the candidate scales (f_a=M_scal/128, m_a; v185/v211); integrates the nonlinear ODE theta'' + (3+dlnH/dN)theta' + (m_a(T)/H)^2 sin theta = 0 with the lattice topological susceptibility m_a(T)=m_a min(1,(T_QCD/T)^{n/2}) (n=8.16) and realistic g_*(T). [I] candidate scales f_a=M_scal/(2 dim S^+ |mu4|)=M_scal/128~2.39e11 GeV, m_a~23.8 ueV, N_DW=1 (determinant-line atoms). [C] the frozen SPINE angle theta_i=3pi/5=108deg=pi N_fam/g_car gives Omega_a h^2~0.12 in [0.08,0.16] (brackets Omega_DM=0.12) with NO tuning -- the robust dominant-DM branch. [X] the HILLTOP theta_i~170deg over-produces (Omega_a h^2~0.65, ~5.4x) -- disfavoured/fine-tuned. [X] kill: a finite-T solve robustly outside [0.08,0.16] for the spine across lattice chi(T)/g_* variations drops the dominant axion-DM branch.

Recorded status: axion relic finite-T solve DECIDES the branch -- spine 3pi/5 lands on Omega_DM (in band), hilltop 170deg over-produces [C]/[X]

Dependencies, status detail and source

Canonical status: [I] the candidate scales; [C] the spine in-band relic (finite-T misalignment + lattice chi(T)); [X] the hilltop over-production + the spine kill test. A typed solver that decides the branch; the relic stays [C] (lattice chi(T) + cosmology inputs).

Dependencies: v185; v211; v25

Scripts: v373_ftransfer_relic.py

Location: tfpt_4_frontier

Original CSV, line 85

Original ledger status

FR.QCD.BUDGET.01

FR.QCD.BUDGET.01

Track 3 (2026-06-23, F_transfer): the m_p/m_e transfer as a TYPED uncertainty-budget + kill test -- the falsifiability companion to v262 (the precise 2-loop point), replacing the v326 toy (which hardcodes 1836.15). Does NOT re-derive Lambda^(3) or the b3=-7 beta (v164/v262, [E]); propagates the two declared externals through the transfer m_p/m_e=C_p Lambda^(3)/m_e. [E] b3=-(11-2 n_f/3)=-7 (n_f=6 carrier). [N] two declared externals (v339): alpha_s(M_Z)=0.1179+-0.0009 (PDG) and C_p=2.83+-0.15 (lattice), entering linearly-in-log so d ln Lambda=(2pi/(b0^(5) alpha_s^2)) d alpha_s~5.3% and d C_p/C_p~5.3%. [C] m_p/m_e central ~1824 (v262 2-loop) with a propagated 1-sigma band +-sqrt(5.3^2+5.3^2)%~+-7.5% -> [~1690,~1960], CONTAINING the observed 1836.15 -- no free dial. [X] kill: a future lattice C_p+-0.03 + tighter alpha_s shrink the band to ~+-2%; a band then EXCLUDING 1836.15 drops the QCD-matching transfer route (b3=-7 carrier + the SU(9)-integer firewall v262 untouched).

Recorded status: m_p/m_e uncertainty budget: the observed 1836.15 is inside the propagated +-7.5% (alpha_s, C_p) band; lattice-tightening is the kill [C]/[N]/[X]

Dependencies, status detail and source

Canonical status: [E] b3=-7; [N] the two externals; [C] the observed ratio inside the propagated band (no dial); [X] the lattice-tightening kill test. An uncertainty-budget/falsifiability solver, distinct from v262's point estimate; m_p/m_e stays [C].

Dependencies: FR.MPME.02; v262; v164; v339

Scripts: v374_ftransfer_qcd.py

Location: tfpt_4_frontier

Original CSV, line 86

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: derived terms, unique root and physical EM identification

Where do the factors and closed alpha equation come from, which provenance steps are proved, and which precise physical EM identification remains open?

  • Resolved in scope: Separate root calculation from source selectionRead result
  • open: Derive the actual EM functional variation and Thomson identification
  • 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?

Automatic response search with original-source decision

Which additional joint response actually follows from original source equations, and which entire finite process family remains undecided without it?