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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 · 706 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 All 788 ledger rows, including superseded rows, remain in the download.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 707 findings; 1 administrative record is excluded from public scientific content, with the omission recorded in the coverage file.

The scientific findings include 515 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 4d8fcdb3587f8e4cc0898e5c · snapshot SHA256 7c23438352ba021cef5aa0999c31e5c242fbc6ed12b172e4d35fb6a68f65dbb4

26 matching records · page 2 of 2

Original ledger status

ARF.VACUUM.SYNDROME.01

ARF.VACUUM.SYNDROME.01

v852 -- ARF.VACUUM.SYNDROME.01 + OVOID.DECODER.01: the Arf-vacuum syndrome theorem and the integral five-mode decoder -- the corpus's flat counts, orbit splits, Hecke matches and code enumerators compress into ONE two-bit syndrome table on the Hamming code, and the doily recovery channel gains an explicit integral inverse with the S6 standard representation identified, ONE module from two probes (24/24 + 23/23 checks, zero fails, verdicts ARF-VACUUM-SYNDROME-EXACT and OVOID-DECODER-EXACT; discovery probes affine_arf_vacuum_probe.py and doily_ovoid_decoder_probe.py, 2026-08-07, re-run identically at promotion, embedded BYTE-EXACT and executed verbatim, exact integer/Fraction/sympy arithmetic, <1 s). PART A, THE ARF-VACUUM SYNDROME: (a) THE ARF BIT THEOREM -- for every affine flat t+U of (F_2^4, hb) the Arf bit a(t+U) = sum_{x in t+U} q*(x) mod 2 equals the direction bit hb(u,v) of the underlying plane U for ALL 140 flats (position independence: all 4 cosets agree; the direction bit is well-defined on all 35 planes); (b) THE TWO-BIT SYNDROME CENSUS -- (s_vac, s_Arf) = (origin bit, direction bit) splits the 140 flats EXACTLY into 15/20/45/60 (doily lines / non-isotropic lines / isotropic off-planes / non-isotropic off-planes), reproducing v821's 35 = 15 + 20 and v834's 105 = 45 + 60 as rows of ONE table; (c) THE LOCAL HECKE THEOREM -- at EVERY nonzero point x: 3 isotropic + 4 non-isotropic directions through x with the isotropic ones in bijection with the points of x^perp/<x>, and the 28 off-origin flats through x split 12 + 16 with A_3 + B_3 = 28 = sigma_3(3) and A_3 - B_3 = -4 = a_3 (the eta-product Hecke eigenvalue, v820/v535 rebuilt LOCALLY at all 15 points; 28 - (-4) = 32 = 2^5 the pi_cusp denominator, v785); (d) THE CODE PENCIL -- H = ker X = [15,11,3] (weight-3 words == the 35 lines, weight-4 == the 105 off-origin flats, SET EQUALITIES), H^perp = the simplex code, and the CANONICITY LEMMA: all 16 refinements differ from q* by simplex words, hence induce ONE Arf functional on H; below H sit D = [15,10,4] (v819's enumerator EXACT), C_iso and C_non = [15,10,3] (weight-3 words == the 15 doily lines resp. the 20 non-isotropic lines), all pairwise intersections == K = [15,9,4], all pairwise sums == H, and the syndrome map H -> F_2^2 is surjective with four fibers of 512; (e) RM(2,4) RESTORED -- puncturing RM(2,4) = [16,11,4] at the vacuum coordinate gives H, shortening gives D, and c -> (p.c, c) is a bijection H -> RM(2,4): THE VACUUM BIT IS THE PARITY BIT, and on the 140 flat words the restored coordinate == s_vac exactly. Controls fire: the dot form admits 0 refinements and an ill-defined direction bit; an Arf-0 refinement leaves the table invariant but breaks the labeling (zero set 10 != 6, not an ovoid); a frozen-LCG column permutation preserves [15,11,3] but destroys the line labeling (31/35 weight-3 supports not lines). PART B, THE OVOID DECODER: the Cremona-Richmond incidence N (15 duads x 15 synthemes) and the six ovoid vectors v_a = 3*1_{O_a} - 1 satisfy (a) N^T v_a = 0 for ALL six a (every syntheme covers each letter exactly once -- the kernel facts from perfect matchings), any five of the six are independent, sum_a v_a = 0; (b) the Gram V^T V = 36I - 6J ENTRYWISE; (c) SNF(N) = diag(1^10, 0^5) EXACT over Z -- rank 10 = C(g_car, 2), kernel 5 = g_car, NO TORSION, with a det-+-1 10x10 minor exhibited; (d) the Moore-Penrose closed form N+ = N^T/4 - J/36 verified against all four Penrose axioms in exact Q; (e) the carrier projector P5 = I/2 - B/4 + J/12 == (1/36) sum_a v_a v_a^T entrywise, P5^2 = P5 = P5^T, P5 N = 0, tr P5 = 5 = g_car, N N+ = I - P5 (the visible-part projector); (f) THE MOD-2 SHADOW: v_a mod 2 == q_a entrywise and ker_F2(N^T) == A_q = [15,5,6] (weight enumerator 1 + 10z^6 + 15z^8 + 6z^10) -- THE THREE-RING CORRESPONDENCE: the same kernel is (R) the ovoid span, (Z) torsion-free rank 5, (F_2) the code A_q; (g) THE DECODER DEMO: mhat = (1/4)N y - (1/36)J y == (I - P5) m EXACTLY on the predeclared 6-vector test set (kernel modes invisible, im(N) modes fully visible) -- the recovery channel of DOILY.PASCAL.RANK.01 now has an explicit integral inverse, not just a spectrum; (h) THE S6 IDENTIFICATION: N is S6-equivariant and tr(P5 Pi(pi)) == fix(pi) - 1 for representatives of ALL 11 conjugacy classes -- ker N^T IS the 5-dimensional standard representation: the five-slot carrier is the sixth-root-free shadow of six ovoid modes with one relation. Control fires: a frozen-LCG wrong pairing (same row/col sums 3) breaks SNF (torsion 3 appears), the F_2 kernel (4 != 32) and the ovoid kernel property. The P2 integers remain the singular-value data of the doily; no marker moves -- the compression is a normal form plus an inverse, not a new claim. NO RH claim. Python-only per GATE.WOLFRAM.02.

Recorded status: Exact identity-grade compression [Identity]: both parts exhaustive finite algebra (F_2 / Z / Q; SNF, Penrose axioms, S6 class characters exact; SET equalities, not counts); the corpus surfaces v819/v820/v821/v834/v535/v785 compressed into ONE two-bit syndrome table and the v774/v814 doily channel into ONE integral decoder; controls fire (dot form, Arf-0 labeling break, frozen-LCG permutation/pairing); no marker move (Python-only per GATE.WOLFRAM.02)

Dependencies, status detail and source

Canonical status: ARF-VACUUM-SYNDROME-EXACT + OVOID-DECODER-EXACT: a(t+U) = hb(u,v) on all 140 flats; census 15/20/45/60; the local Hecke theorem 12/16 -> 28/-4 at all 15 points with x^perp/<x> semantics; pencil [15,11,3] > {[15,10,4], 2 x [15,10,3]} > [15,9,4] with the canonicity lemma (one Arf functional on H) and the vacuum bit = the RM(2,4) parity bit; N^T v_a = 0, Gram 36I - 6J, SNF diag(1^10, 0^5) torsion-free (det +-1 minor exhibited), N+ = N^T/4 - J/36 (four Penrose axioms exact in Q), P5 = I/2 - B/4 + J/12 (tr 5 = g_car), decoder exact on the predeclared set, ker = the S6 standard representation (11/11 classes), three rings (R ovoid span / Z torsion-free / F2 code A_q = [15,5,6] via v_a mod 2 = q_a)

Dependencies: NORMALFORM.CFIN.01; MESSAGE.LADDER.01; v774; v819; v820; v821; v834; v844; v845

Scripts: v852_arf_vacuum_ovoid.py

Location: tfpt_1;tfpt_3

Original CSV, line 709

Original ledger status

E8.SIMPLEX.FOURIER.01

E8.SIMPLEX.FOURIER.01

v857 -- E8.SIMPLEX.FOURIER.01 + FLAVOR.WINDING.QUADRATIC.01: the E8 audits, part I -- the Gaussian census IS a Fourier law and v817's per-prime measurement is the prime restriction of a CHARACTER THEOREM (mh2(n) = -1/15 as an integer identity at EVERY odd n <= 16500), and the tfpt_2 winding line collapses to ONE rank-one determinant quadratic q_wind = t^2 - g_car t + |Z2| with the triple lock s = 6 and the reality threshold typed, ONE module from two probes (26/26 + 20/20 checks, zero fails, verdicts SIMPLEX-FOURIER-EXACT + INTERTWINER-IDENTIFIED and WINDING-QUADRATIC-EXACT; discovery probes simplex_fourier_probe.py and flavor_winding_quadratic_probe.py, 2026-08-08, re-run identically at promotion, embedded BYTE-EXACT and executed verbatim, exact integer/Fraction/sympy arithmetic, ~2 s). PART A, THE FOURIER LAW (audit package A): the Construction-A rebuild is warded (30 placements, 2 invariant under pi_J and pi_sigma; 240 roots, all norm 4, all in L; the quotient V = L/(1+i)L = F_2^4 with class addition well-defined on all 256 pairs and every class 2-torsion), the census r = (0; 16^15) (zero class EMPTY, v833/v844) has the EXACT Walsh transform rhat = (240; -16 x15) with the inversion sum rule, i.e. the normalized spectrum {1, (-1/15)^15}: the uniform-nonzero channel P = (J - I)/15 entrywise in Fractions (doubly stochastic; eigenaction exact on all 16 characters; two-step P^2 = (I + 14J)/225 with contraction 1/225); THE FIVE-LINE THEOREM measured at every level: (i) RAMIFICATION -- Theta_0(n) = 0 for EVERY odd n <= 16 with the one-line proof (x = (1+i)y forces even level) and Theta_0(2m) = 240 sigma_3(m); (ii) EQUIDISTRIBUTION -- Theta_v(n) is ONE value over the 15 nonzero classes at every level n <= 16 (the Sp(4,2) footprint); (iii) hence Thetahat_u(odd n) = -Theta_L(n)/15; (iv) THE INTERTWINER IDENTITY -- the v817 packet numerator (Th0-Th1+Th2-Th3)(n) EQUALS the code Walsh transform Thetahat_u(n) for every nonzero u at EVERY level n <= 16, odd AND even (both ladders read [-16, 112, -448, 1136, -2016, 3136, -5504, 9328] at n = 1..8; the Eisenstein normal form 15 Theta_D8 = 7 Theta_L + 8 Theta_0 across machineries); (v) THE VALUE THEOREM -- 15 (Th0-Th1+Th2-Th3)(n) = -240 sigma_3(n) for EVERY odd n <= 16500, hence mh2(odd n) = -1/15 IDENTICALLY, covering all 1911 odd primes <= 16500: v817's per-prime measurement is a character theorem of the code, one Walsh transform away from the deployed census with NO new input. THE HONEST TYPE (measured, kept): the identification is SPECTRAL (numerator q-series equal) -- the packet 5|3-parity grading (52, 60, 128) and the code grading (15 x 16) do NOT refine each other (the S6.3 cross table: 4 + 3 + 8 mixed classes); the spinor halving Th1 = Th3 stays numerical fiat (typed); 52 = 40 + 12 = |R(D5)| + |R(A3)| is the seam reading. Controls fire (occupied zero class, one class at 15, wrong quotient dim F_2^3 -- each breaks the law at a stated integer), invariances hold (24 explicit isometries of (L, J) preserve census and spectrum; the OTHER invariant placement C** gives the identical law). PART B, THE WINDING QUADRATIC (audit package for tfpt_2, section I.5): against the deployed residue matrix (det R = 8 = h(D5), tr R = 9, PrinMin2 = (5,3,2), SNF (1,1,8), anchor R e1 = (1,1,2), cofactor seam normal adj(R) row 1 = (5,-9,6) with n.1 = 2 = |Z2|), THE MINI-THEOREM: chi_{R_s} - chi_R = -s q_wind with q_wind = e1^T adj(tI - R) 1 = t^2 - 5t + 2 = t^2 - g_car t + |Z2| EXACT in sympy -- the whole winding line is one rank-one matrix-determinant lemma; the keybox coefficients (9+s, 10+5s, 8+2s), the per-winding det increment d(det R_s)/ds = q_wind(0) = 2 = |Z2| and the minor law PrinMin2(R_s) = (5, 3(s+1), 2(s+1)) (carrier minor 5 s-INVARIANT) are all readouts of the single quadratic; q_wind is irreducible over Q (disc 17 nonsquare) and the two base points are s-invariant (rem(chi_{R_s}, q_wind) = -12t, s-free); THE TRIPLE LOCK: trace (tr R_s = 15), determinant (det R_s = 20) and Coxeter lift ((R_s^T a)_1 = 30) each solve to s = 6 ALONE, intersection {6} = {|R+(A3)|}, and at s = 6: chi_L = t^3 - 15t^2 + 40t - 20 with (15, 40, 20) = (dim A3, |R(D5)|, |R(A4)|), 3 real positive roots; THE LOCUS (exact Sturm/resultant): Delta(s) = disc_t chi_{R_s} = 17s^4 - 18s^3 + 709s^2 + 588s - 7996 (irreducible), Delta(6) = 39200 = 2^5 5^2 7^2 = 2 x 140^2 > 0 -- s = 6 is NOT a collision point; the reality threshold is the unique Delta-root in (2, 3), s* ~ 2.8250 (matching the deployed ~2.83; Sturm real-eigenvalue counts jump 1 -> 3 between s = 2 and s = 3); the integer-window census types s = 6 as the ONLY 2xsquare hit in s = -2..12 (measured, typed -- and q_wind(6) = 8 = det R reported as a measured coincidence). Controls fire: the sibling directions 1 e2^T and 1 e3^T change the quadratic AND break the lock (intersections EMPTY; 1 e3^T even reducible), the sibling ROW transport e1 1^T keeps -g_car t but LOSES |Z2| (locks pairwise disjoint 6/12/24), and the sibling minor branch {1,3,4} is unreachable on the whole winding line (integer scan s = -100..100 empty; the carrier minor 5 invariant) -- the triple (1, -5, 2) is direction-specific. Both parts are exact-arithmetic corpus compressions and audits of DEPLOYED claims (v817, v833, v844, v4/v94 keyboxes) -- normal forms and identities, no new physical claim, no marker moves. NO RH claim. Python-only per GATE.WOLFRAM.02. [2026-08-08 round-LXXIX note (v875): THE CENSUS IS NOW A THEOREM -- E8.SHELL.GLOBAL.01 proves Thetahat_u/Theta_L = -1/15 for ALL odd shells (Sp(4,2) transitivity of the G31 class action + (1+i) doubling + Theta_L = 240 sigma_3), replacing the n <= 16500 finite-census argument behind the value theorem; the census range is retained as the exact ward and the character-theorem reading of this row is unchanged; the consequence chain is kernel-checked in FORM.E8.SHELL.GLOBAL.01 (TfptCarrier/GaussianShells.lean).]

Recorded status: Exact corpus compression [typed evidence line: 26/26 + 20/20 checks, zero fails, exact integer/Fraction/sympy arithmetic throughout; the identification typed SPECTRAL-only (the packet and code gradings do not refine each other); the spinor halving stays numerical fiat; q_wind(6) = 8 = det R typed a measured coincidence; the integer-window 2xsquare census measured, not narrated]; audits of DEPLOYED claims (v817/v833/v844, tfpt_2 I.5 keyboxes) -- normal forms and identities, no new physical claim; NO RH claim; no marker move (Python-only per GATE.WOLFRAM.02)

Dependencies, status detail and source

Canonical status: SIMPLEX-FOURIER-EXACT + INTERTWINER-IDENTIFIED + WINDING-QUADRATIC-EXACT: rhat = (240; -16 x15), P = (J-I)/15 with spec {1, (-1/15)^15}, two-step 1/225 exact; ramification + equidistribution at every level <= 16; packet numerator == code Walsh at every level (both [-16, 112, -448, 1136, ...]); mh2(odd n) = -1/15 for every odd n <= 16500 (integer identity, 1911 primes); q_wind = t^2 - 5t + 2 exact by the adjugate lemma; triple lock s = 6; Delta(6) = 39200 = 2 x 140^2, sole 2xsquare hit; s* ~ 2.8250 the unique Delta-root in (2,3); 7 controls fire, 2 invariances hold

Dependencies: CFIN.UNIQUE.01; MESSAGE.LADDER.01; ARF.BENT.CSS.01; v4; v94; v817; v833; v844

Scripts: v857_simplex_fourier_winding.py

Location: tfpt_1;tfpt_2;tfpt_3;tfpt_research_contracts

Original CSV, line 711

Original ledger status

E8.G31.CLOCK_ALPHABET.01

E8.G31.CLOCK_ALPHABET.01

v858 -- E8.G31.CLOCK_ALPHABET.01: the E8 audits, part II -- the compiler clock alphabet is a NORMAL FORM of G31: Deg(G31)/4 = {2, 3, 5, 6} = {|Z2|, N_fam, g_car, |R+(A3)|} with the audit identity (sum d/4)(sum (d-1)/4) = 16 x 15 = 240 REALIZED on the roots, (8, 12, 20, 24) the UNIQUE integer quadruple with product 46080 and sum 64, the 607-group rank-4 kill scan typed (G31 the SOLE full-battery passer; weak-triple and raw-sum-64 impostors named), and the W(D5) x W(A3) fence re-killed with COMPUTED centers 4 vs 1, ONE module from one probe (19/19 checks, zero fails, verdict CLOCK-ALPHABET-SELECTIVE; discovery probe g31_clock_alphabet_probe.py, 2026-08-08, re-run identically at promotion, embedded BYTE-EXACT and executed verbatim, ~4 s). THE REBUILD (warded against v634): 240 doubled-integer E8 roots, J free of order 4 with EXACTLY 60 Gaussian lines, 60 order-2 reflections (one per line, all distinct), BFS closure |G| = 46080 = 8 x 12 x 20 x 24 = prod Deg(G31), every element complex-linear (commutes with J), the base certified by an exact adjugate identity (det = -512), and the EXACT reflection census: 60 elements with rank(M - I) = 2, all order 2, all generators -- ZERO quasi-reflections (v634 TEST2 reproduced; sum (d-1) = 60 anchors the degrees; the Molien uniqueness CITED, not recomputed). THE NORMAL FORM: Deg(G31) = |mu4| x {2, 3, 5, 6} with gcd = 4 = |mu4|, lcm = 120 = |R+(E8)|, lcm/gcd = 30 = h(E8); sum d/4 = 16 (the class size) and sum (d-1)/4 = 15 (the classes) with 16 x 15 = 240 = |R(E8)| -- and the 60/4 = 15 line is REALIZED on the roots (the 15 classes at 4 lines per class, the same 15 x 16 census as the package-A code side); the alphabet {2, 3, 5, 6} = {|Z2|, N_fam, g_car, |R+(A3)|} is EXACTLY the compiler clock alphabet; the Springer footprint is typed (exponents (7, 11, 19, 23) all = 3 mod 4; the d/4-clock realization x^{d/4} in {J, J^3} cited v654). THE ARITHMETIC PIN (measured): the integer-quadruple census with product 46080 and sum 64 returns EXACTLY [(8, 12, 20, 24)]. THE KILL SCAN (the selectivity theorem, 607 groups): the full rank-4 Shephard-Todd catalog (integrity: prod(degrees) = |G| for every entry -- a table second-source check) is run through the seven-gate battery (product, raw sum 64, gcd normalization, alphabet set, lcm, lcm/gcd = 30, audit identity): G31 is the SOLE full-battery passer; the weak-triple (gcd/lcm/30) impostors are typed by name (G(20,10,4), G(20,20,4), G29) and the raw-sum-64 coincidences too (G(8,2,4), G(10,10,4), G30 = W(H4)); the family boundary is verified in range (no G(m,p,4) matches the alphabet for any 2 <= m <= 120, with the typed argument: 3m/g <= 6 forces g >= m/2, then {d/g} contains 1 or 4); THE HONESTY LINE (typed, no kill): degree-only audits cannot separate G31 from the reducible torus Z8 x Z12 x Z20 x Z24 (identical degrees by construction) -- the frozen scope is the irreducible rank-4 list; the controls fire (the perturbed quadruple (8,12,20,28) fails the battery; the wrong normalization gcd 2 breaks the alphabet). THE FENCE (re-killed with a computed one-number invariant): |W(D5)| x |W(A3)| = 1920 x 24 = 46080 = |G31| stays NUMEROLOGY -- the computed |Z(G31)| = 4 with Z = <J> = mu4, versus |Z(W(D5) x W(A3))| = 1 x 1 = 1 (odd-rank D5: -1 not in W(D5); Z(S4) = 1): NOT isomorphic, NOT a decomposition (v634 T1.3/T1.4/T1.5 CITED for the full structural refutation: G = (Z4 o 2^{1+4}).Sp4(2) and W(D5) embeds in NO rank-4 group). The module is an exact-arithmetic corpus compression and a selectivity audit of a DEPLOYED object (v634/v654) -- a normal form plus an armed kill rule, no new physical claim, no marker moves. NO RH claim. Python-only per GATE.WOLFRAM.02. [2026-08-08 round-LXXIX note (v874): THE ALPHABET HAS A DECODER -- E8.WINDING.DECODER.01 proves that the v857 winding quadratic maps the clock alphabet {2,3,5,6} to (-|mu4|,-|mu4|,|Z2|,h(D5)) with the decoder polynomial (y+4)^2(y-2)(y-8) carrying budget coefficients (2, 48, 32, 256) and the exact bridge |mu4| q(|Z2|)/|R(E8)| = -1/15 = the Walsh message eigenvalue; typed AUDIT theorem, not a functor; the 6-vs-7 honesty note of this row carries over verbatim.]

Recorded status: Exact corpus compression + selectivity audit [typed evidence line: 19/19 checks, zero fails; the honesty line kept (degree-only audits cannot separate G31 from the reducible torus Z8 x Z12 x Z20 x Z24 -- frozen scope the irreducible rank-4 Shephard-Todd list); the Molien uniqueness and the full W(D5)-fence structural refutation CITED (v634), not recomputed; X1/X2 controls fire]; a normal form plus an armed kill rule for a deployed object; NO RH claim; no marker move (Python-only per GATE.WOLFRAM.02)

Dependencies, status detail and source

Canonical status: CLOCK-ALPHABET-SELECTIVE: Deg(G31)/4 = {2,3,5,6} = {|Z2|, N_fam, g_car, |R+(A3)|}; gcd 4 = |mu4|, lcm 120 = |R+(E8)|, lcm/gcd 30 = h(E8); (sum d/4)(sum(d-1)/4) = 16 x 15 = 240 realized on the roots (4 lines/class); (8,12,20,24) the unique product-46080/sum-64 quadruple; 607-group scan: G31 sole full-battery passer (weak-triple impostors G(20,10,4)/G(20,20,4)/G29; sum-64 coincidences G(8,2,4)/G(10,10,4)/W(H4)); family boundary m <= 120 empty; fence killed by computed centers 4 vs 1

Dependencies: v634; v654; CFIN.UNIQUE.01

Scripts: v858_g31_clock_alphabet.py

Location: tfpt_1;tfpt_3;tfpt_research_contracts

Original CSV, line 712

Original ledger status

DYN.MARKOV.EMBED.01

DYN.MARKOV.EMBED.01

THE MARKOV EMBEDDING CONTRACT (registered 2026-08-27; 'three meanings of dynamics' split, step (a)->(b)). FINITE KERNEL HALF [E] (v971, sympy-exact): for the v221 seam transfer kernel T (spectrum exactly {1, 64/729, 1/729}) the principal logarithm Q = log T is an EXACT classical Markov generator -- e^Q = T by exact spectral calculus; row sums symbolically zero; off-diagonals exactly {ln(9/8), 2 ln 3, 2 ln 3} = {0.117783, 2.197225, 2.197225} > 0 (the reviewer's independently verified numbers), diagonals -ln(81/8), -ln(81/8), -4 ln 3; uniformization certificate Q + (4 ln 3) I >= 0 entrywise (diagonals ln 8, ln 8, 0, exact) => e^{tQ} positivity-preserving doubly stochastic for ALL t >= 0, T embeddable, every root T^{1/n} stochastic; spec(Q) = -spec(H_mod) = {0, -6 ln(3/2), -6 ln 3} (gap = Delta = 6 ln(3/2)); detailed balance w.r.t. the uniform state. NEGATIVE CONTROL: second eigenvalue -1/10 gives det = -1/200 < 0 -- provably NOT embeddable (det e^Q = e^{tr Q} > 0 always); embeddability is not generic, the RP/OS spectral positivity (CONTRACT.F.01 axiom 3) is the enabling fact. WHAT STAYS [O]: the same embedding statement at FIELD level (reconstructed net / quasi-local algebra, uniform in system size). FIREWALL: e^{tQ} is irreversible statistical dynamics (H-theorem), NOT unitary evolution -- step (b)->(c) is the separate contract DYN.UNITARY.DILATION.01; the shared F_transfer relaxation shape is a universal CONTRACTION CLASS, not one physical clock (v723/v724/v777). Python-only per GATE.WOLFRAM.02 (matrix-log/spectral identities; the exact rationals 64/729, 1/729 already mirrored).

Recorded status: Contract [E] (finite kernel embedding, sympy-exact; v971) + [O] (field level)

Dependencies, status detail and source

Canonical status: [E] the finite kernel half: Q = log T is an exact Markov generator (row sums 0, off-diagonals ln(9/8), 2ln3, 2ln3 > 0, uniformization positivity for all t >= 0); [O] the field-level embedding

Dependencies: v221 (kernel); v957 (T = e^{-H_mod}); CONTRACT.F.01 (axiom 3 positivity); v723/v724/v777 (external clocks)

Scripts: v971_markov_embedding_generator.py

Location: tfpt_research_contracts

Original CSV, line 741

Original ledger status

TRANSFER.HIDDEN.CIRCULATION.01

TRANSFER.HIDDEN.CIRCULATION.01

THE HIDDEN CIRCULATION CONTRACT, executed half (registered 2026-08-27; external-review round, companion of the DYN.MARKOV.EMBED.01/DYN.UNITARY.DILATION.01 split). [E] (v976, sympy/Fraction-exact): (1) the Birkhoff fibre of the seam single step B (exact sixth root of the v221 kernel; B = (1/2)I + (1/18)P12 + (2/9)P13 + (2/9)P23 bit-exact) is EXACTLY a one-parameter line w_t, t in [0, 1/18], because the decomposition map on R[S3] has the 1-dim kernel (even - odd); the hidden parameter is the sign-character Fourier coefficient w_t-hat(sgn) = 6t; populations are exactly t-free and no fibre member is chiral (w(C123) = w(C132) forced -- the typed obstruction for any chirality reading). (2) THE DISCRIMINATOR: one-step coherence dynamics is the weighted left regular S3 representation with spectrum {1, 6t, 2/3 x2, 1/3 x2} exactly; the triangle loop current A is an exact eigen-observable Psi_t(A) = 6t A (population-blind; one step + one current readout measures t, no ancilla; one-step tomography rank 6 determines all six weights). (3) CONTRAST-QUBIT CHOI LAW: spec(Choi^{T2}) = {-3t/2, 1/6+3t/2, 1/3+3t/2, 1/2-3t/2} symbolically; CRITICALITY lambda_min = (1 - lambda2 - lambda3 - 6t)/4 with lambda2 + lambda3 = 2/3 + 1/3 = 1 EXACTLY: t = 0 sits precisely ON the entanglement-breaking boundary (mutated spectra {2/3,1/2}/{1/2,1/3} miss by -1/12/+1/12 -- criticality not generic); the squared channel is PPT on the whole range (endpoint minima 1/9, 1/12). (4) FULL-LEVEL NPT PERSISTENCE: lambda_min(Choi(Psi_t^n)^{T2}) = -(1/3)(2/3)^n, t-independent (exact eigenvalue for n in {1,2,6}; float minimum n = 1..8) -- the 3-level family is never EB at tested n (pinned by the invariant coherent state (1,1,1)/sqrt3). (5) THE NO-GO for DYN.UNITARY.DILATION.01: the deployed Kraus dilation K_ij = sqrt(T_ij)|i><j| is measure-and-prepare (one step kills every coherence, fully symbolic), its Choi is diagonal => entanglement breaking => quantum capacity 0; C_0(T) = 0 exactly (T entrywise > 0); the Kraus channel is NOT in the Birkhoff fibre. (6) BINARY MESSAGE (KKT, 50 digits): p* = (1/2, 1/2, 0) exactly capacity-achieving for BOTH T and B; C(T) = 0.00835801913781 bit, C(B) = [13 log2(13/7) - log2 7]/18 = 0.4890415237 bit, ratio 1.709%. [C] literature-typed: PPT<=>separable in 2x2 (Peres-Horodecki), separable Choi <=> EB (Horodecki-Shor-Ruskai quant-ph/0302031), EB index (Lami-Giovannetti 1411.2517) => qubit n_EB = 1 (t = 0) / 2 (t > 0). [C] VALUE COINCIDENCE (observation, NOT a theorem): the t = 0 weights (9,1,4,4)/18 = (3^2,1^2,2^2,2^2)/18 hit the v652 c = 0 defect-ladder values 2*Delta = g^2/18 including w(I) = 1/2 = 2*Delta(gt=3); multiplicity matches only at g = 2; the forcing functor (CFT defect dimension -> Birkhoff weight) is the OPEN half, named TRANSFER.DEFECT.BIRKHOFF.01. OPEN: the physical selection of a fibre point t; any 4D/flavor reading. Python-only per GATE.WOLFRAM.02 (channel/Choi/Birkhoff algebra; the exact seam rationals already mirrored).

Recorded status: Identity [E] (executed half: fibre line, discriminator, criticality, EB no-go, KKT) + literature [C]; fibre-point selection open

Dependencies, status detail and source

Canonical status: [E] the Birkhoff fibre of B is the sign-character line t in [0,1/18]; loop-current discriminator Psi_t(A) = 6t A; qubit Choi law -3t/2 with EB criticality 2/3 + 1/3 = 1; full-level NPT -(1/3)(2/3)^n; the deployed Kraus dilation is EB (Q = 0, C_0 = 0); binary-message KKT certificates; [C] defect-Birkhoff value coincidence (forcing functor OPEN as TRANSFER.DEFECT.BIRKHOFF.01)

Dependencies: DYN.UNITARY.DILATION.01; DYN.MARKOV.EMBED.01; QEC.SEAM.01; v221_seam_qecc.py; v652_orbifold_arf.py

Scripts: v976_seam_lift_birkhoff.py

Location: tfpt_research_contracts

Original CSV, line 743

Original ledger status

TRANSFER.COHERENT.WILSON.01

TRANSFER.COHERENT.WILSON.01

THE COHERENT WILSON CONTRACT, executed half (registered 2026-08-27; external-review round, companion of TRANSFER.HIDDEN.CIRCULATION.01). [E] (v977, sympy-exact): (1) UNISTOCHASTICITY: the seam single step B equals |U_ij|^2 entrywise for an exact U in SU(3); the angles are forced by B (sin^2 th13 = 2/9, sin^2 th12 = 1/14, sin^2 th23 = 2/7), cos delta = -4/sqrt(65) is uniquely solved, so the complete lift set up to rephasing is the two-branch family {U, U*} with e^{i delta} = (-4 +- 7i)/sqrt(65). (2) THE WILSON DATA ARE CLASSICAL UP TO ONE SIGN: J = 1/27 exact, Re of every plaquette fixed by B through unitarity (Re Q_{12;12} = -5/324, J^2 = 1/729 from B alone) -- the classically invisible datum is the Z2 orientation bit sgn J (U* lifts the same B with J = -1/27); minimal observable = the plaquette interference readout Im(U11 U22 U12* U21*). (3) THE 5-12-13 CODE: Q_{12;12} = (-5+12i)/324, normalized (-5+12i)/13 with 5^2 + 12^2 = 13^2 (atoms 5 = g_car, 12 = dim g_SM, 13 = Delta_Q = N(3+2i)); all nine plaquettes close on four Gaussian phase types with norms exclusively {10, 13, 130, 169} = {2*5, 13, 2*5*13, 13^2}; every plaquette has Im = +-1/27; the four fundamental plaquettes generate all nine via exact B-weighted composition. (4) THE CENTER BRIDGE: disc chi_A = 65 = det(A-I)^2 + (det A/2)^2 = 4^2 + 7^2 for the v530 atom matrix A = [[8,2],[5,3]], and e^{i delta} = (-det(A-I) +- i det A/2)/sqrt(disc chi_A) equals the transport-lift phase EXACTLY; -4+7i = (1+2i)(2+3i) with Gaussian norms 5, 13 (the v738 tower primes); NEGATIVE controls: the v530 siblings A_K (disc 48 vs identity 13) and A_Q (disc 13 vs 13/4) FAIL the identity -- the bridge selects the atom quotient A. (5) POWER LAW + RATIONALITY SELECTION: J_n^2 = (1-b)^2(1+2b-3a^2)/108 (a = (2/3)^n, b = (1/3)^n), every B^n unistochastic with its own U_n (U_6 built, |U_6|^2 = T exact); |J_6| = 0.0951088904 = 0.9884006 J_max; the uniform limit lifts to the Fourier matrix F3 at J_max = 1/(6 sqrt 3) exactly; J_n is RATIONAL ONLY at n = 1 (the deployed step hits 3(1+2b-3a^2) = 1 exactly, so J = 1/27) -- the Gaussian-Pythagorean code selects the single step. (6) NO FIXED MICROSTEP: B^2 != |U^2|^2 exact, and the Dirichlet recurrence witness n* = 967909 has min diag |U^{n*}|^2 = 0.999999 while B^{n*} is uniform to 5.6e-17 -- no single closed unitary generates the relaxing sequence; repeated steps require dephasing between steps, the six-step macro-gate U_6 is NOT U_1^6 (the coherent sharpening of the k5 clock-vs-walk verdict). (7) SELECTIVITY (hard kill passed): the obstruction certificate J^2 = -1/64 < 0 fires on the classic non-unistochastic control; mutated spectra give irrational J; census over 238 valid family points: 4 rational-J, EXACTLY ONE full 5-12-13 code point = the deployed (2/3, 1/3) (0.42% << the preregistered 10% kill). (8) PMNS NEAR-MISS stays NEGATIVE: branch phase 240.2551 deg near the deployed 240 deg (4pi/3, v270) but J_tr = -1/27 = -0.037037 != J_PMNS = -0.02965 and all three angles differ -- NO PMNS derivation. [C] literature: coherification by a reversible unitary iff unistochastic (Dunkl-Zyczkowski 0909.0116; Korzekwa et al. 1710.04228); a unitary lift carries quantum capacity log2 3. OPEN: the physical selection of sgn J; the A -> angles intertwiner (the bridge fixes the PHASE from A-invariants, the ANGLES come from B alone); any CP/time-orientation reading. Python-only per GATE.WOLFRAM.02 (SU(3)/plaquette/center-bridge symbolic algebra with nested radicals).

Recorded status: Identity [E] (executed half: unistochastic lift, Wilson code, center bridge, selectivity census) + literature [C]; branch selection and intertwiner open

Dependencies, status detail and source

Canonical status: [E] B unistochastic with exact SU(3) lift {U, U*}, J = +-1/27; 5-12-13 plaquette code (norms {10,13,130,169}); center bridge disc chi_A = 65 = det(A-I)^2 + (det A/2)^2 with sibling negatives; rationality selection (J_n rational only at n = 1); census unique full-code point = deployed (2/3, 1/3); no fixed microstep (Dirichlet witness); [C] coherification literature; PMNS near-miss stays negative; sgn J and the intertwiner OPEN

Dependencies: TRANSFER.HIDDEN.CIRCULATION.01; DYN.UNITARY.DILATION.01; v530_center_quotient_compiler.py; v738_hecke_mod_ramified.py; v270_pmns_jarlskog_assembly.py

Scripts: v977_transfer_unistochastic_wilson.py

Location: tfpt_research_contracts

Original CSV, line 744

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?

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?