One finite geometry. Thousands of exact artifacts. Named maps. Reproducible certificates. Public corrections.
Start with the symplectic space F_3^4. Its totally isotropic points and lines
form W(3,3): 40 points, 40 lines, 240 incident point-pairs, and the
collinearity graph SRG(40,12,2,4). This repository is the executable atlas
grown from that object: exact homology, integral lattices, modular
representations, error-correcting codes, Schläfli/E₆ carriers, Hecke algebras,
cycle and selector geometry, and finite transport systems.
This is not a pile of numerology organized by pass number. Its strongest line is an object-level bridge: three 432-state carriers are explicitly identified with directed Schläfli edges, mapped equivariantly into an 81-dimensional constituent, resolved integrally by exact Smith forms, and followed through their bad-characteristic extensions and Hecke corners. The corpus also keeps the failed versions, so a correction has an executable owner instead of being silently overwritten.
One finite object, pushed as far as exact computation goes. The mathematics below is not conditional on anything:
- Named theorems with machine-checkable witnesses — the two-branch and
k-branch gluing laws, the coalescence theorem, pencil rigidity, the all-
mtrace-valuation theorem atq=3, and one Smith-form theorem that unified two agents' independently built towers. - A complete modular picture of the literal 26-dimensional Hecke algebra —
decomposition and Cartan matrices at
p = 2,3,5, projective indecomposable dimensions, Loewy and radical series, and primitive idempotent systems lifted throughp⁶. The ambient group block has the cyclic-defect Brauer tree1−24−81−64−6; it is related to, but not identical with, the Hecke radical. - A separate, explicit selector orbital algebra — the 120-selector action has
83 orbitals and rational Wedderburn algebra
Q⁷ ⊕ M₂(Q)² ⊕ M₃(Q)³ ⊕ M₄(Q) ⊕ M₅(Q), realized by 83 exact matrix units. - Exact integral arithmetic of every eigenlattice — Smith forms, discriminant
identities, prime-by-prime gluing, and a rigidity theorem showing the gluing
support is an invariant of the ring
Z[S], not of the matrix. - Canonical named maps, not matching integers — every one of the 540 frames
carries a unique
A₄-equivariant cross-matching, and the 540 of them cover the 240 edges exactly 9-to-1. - An all-odd-
qstrongly regular family — regular symplectic spreads form an exact two-intersection scheme with closed parameters and eigenvalues; theq=27Ree–Tits spread supplies a complete seven-weight, exactly 9-divisible[730,5]₂₇code, and four namedq=27families have distinct complete spectra. - Three controller objects, finally separated — the abstract controller has
order 48 and minimal faithful rational degree 4, its canonical single-
Jimage has order 24, and the overlapping rank-three carrier is the infinite arithmetic groupSL₃(Z)with no rational common inverter. - Every quadratic intertwiner, then its symmetry type — all 50 quadratic
Hom maps from the signed-edge 90 are explicit and surjective. Their phase/outer
action is exactly
16·1 ⊕ 16·sgn ⊕ 9·stdforS₃, which explains both the balanced25+25outer split and the32+18phase split. - A correction ledger with executable owners. Refuted claims keep their failure certificates instead of being silently overwritten, and several were found by the authors auditing themselves.
Where the boundary falls. The finite mathematics is exact. The physical
readings — which combinatorial object is a generation, a coupling, an optical mode
— are CONDITIONAL, because identifying a combinatorial object with a physical one
is a map that must be built, not inferred from a matching integer. Two of fourteen
published constant formulas survive σ-testing, and the
table showing which twelve fail
is in this README rather than in a drawer. That is the standard the whole corpus is
held to, and it is the reason to trust the rest.
| Result family | Best current result | Canonical owner |
|---|---|---|
| Geometry, topology, and code | The canonical W(3,3) model, H₁ ≅ Z^81, and the ternary [[240,81,3]]₃ sector |
master paper · Passes 373–374 |
| Integral spectral arithmetic | Exact adjacency and signed-turn Smith forms, prime-by-prime gluing, ramified kernel growth, and the coalescence theorem | integral frontier |
| Exceptional carrier bridge | 432 → 81 → 216, one-colour Smith profile 1^15,2^6,4^8,8^29,40^23, colour index 3^81 |
Pass 1147 |
| Modular representation closure | The nonsplit 58|23 frame extension, one-dimensional directed Ext¹ spaces, exact H₂₆ radicals, Cartan matrices, PIM dimensions, and lifts through p^6 |
Pass 1335 · Passes 1340–1344 |
| Global selector geometry | The length-4 simple-cycle orbit of size 120 is globally minimal over all lengths 3…40; adding a primitive copy idempotent gives the global orbit minimum 360 |
GAP witness |
| Selector orbital algebra | The 120-selector action has 83 orbitals, a 79-dimensional Terwilliger algebra, and 83 explicit rational Wedderburn matrix units | Passes 1355–1384 |
| Steinberg carrier, named | The three 432-orbits carrying the 3×81 are conjugate, stabiliser S₅; the later refinement gives S₅ ∩ PSp(4,3) = A₅ |
Pass 1134 owner · Pass 1375 refinement |
| Frame cross-matching | Every frame has a unique collinearity transversal; independently it is the unique A₄-equivariant matching, and all 540 cover the 240 edges 9-to-1 |
Pass 1355 owner · Pass 1390 refinement |
| Exact cover frontier | Two disjoint 100,000-cover searches hit the same 327 complete PSp(4,3) orbits, containing 3,547,800 covers in total; this is a certified lower bound, not a global completeness claim |
Pass 1510 audit |
| q=5/Reye action closure | The selected q=5 cover’s moving twelve is explicitly T12_165; the 312-row 2-(13,6,60) multidesign reconstructs Reye as its 16 zero-containment triples, with line action T16_1034; exact character pairings separate carrier parity, the outer point/heavy involution, and the point-side sign twist |
Passes 5667–5674 · GAP witness |
| Regular-spread family | For every odd prime power, the q+1 intersection relation is an explicit SRG with eigenvalues q(q−2),−q; a q=27 Ree–Tits slice already has five nonregular intersection sizes |
Passes 2200–2206 |
Complete q=27 spread spectra and codes |
Ree–Tits has complete spectrum 1⁷³⁰,10⁴⁵⁶³,19⁹⁶¹⁷⁴,28⁴⁰⁸²⁹⁴,37³⁶⁵⁰⁴,46⁴⁹¹⁴,55⁷⁰² and an exactly 9-divisible [730,5]₂₇ code; regular/Kantor/Thas–Payne/Ree–Tits spectra are pairwise distinct |
Pass 2300 · Pass 2304 |
| Controller representations | Abstract (C₄×C₆):C₂ has order 48 and minimal faithful rational degree 4; the single-J image has order 24; the overlapping 3D carrier is SL₃(Z) and has no common inverter |
Pass 2306 |
| Complete quadratic map module | Full PSp(4,3) Hom dimensions are Sym=(3,6,5,12), Λ=(3,4,5,12) on targets (15,24,30,81); the combined S₃ module is 16·1⊕16·sgn⊕9·std |
Pass 2301 bases · Pass 2307 character theorem |
| Canonical Weil outer action | At q=7,11, complex conjugation realizes the nonsquare outer similitude on both parity constituents and reverses the realified complex structure, giving exact D₄ relations |
Pass 2302 |
| Chamber Hecke and chiral carrier | The two 160-chamber panels generate the 8D type-C₂ Hecke image; Ω has a literal, uniformly isoclinic point/line 24+24 carrier with squared coupling 3/8 |
Passes 4324–4334 |
| Chamber logic and finite control plane | The rank-48 packet is literally M₂(Q) on a two-state multiplicity coordinate repeated over 24 lanes; the separate ten-dimensional ternary residual gives F₃¹⁰ ⋊ PGSp(4,3) with 17 exact offset classes |
Passes 4936–4937 |
| Steiner three-cover and group firewall | The 120 Steiner triangles form a canonical 4-class, 40×3 refinement of the Q(4,3) line-side carrier; the marked-residue S₆×C₂ and duad–syntheme Aut(S₆) both have order 1440 but are nonisomorphic |
Passes 4870, 4873–4874 |
| Executable recursive runtime | HoloBox gives addressed mailbox/run, immutable path-copy checkpoints, one leaf/network loader, 4,201,025,641 level-six stateful VMs represented by seven uniform node blobs, and independent Python/GAP certificates |
runtime guide · evidence card |
Those are the compact front doors. The larger certified backbone below gives exact statements, tiers, and owning artifacts without forcing a reader to guess which of several historical versions is strongest.
| Reader | Start here | Then go deeper |
|---|---|---|
| General reader | Live atlas · W33 for Everyone | Practical implications |
| Mathematician / researcher | Master paper · source | Result index · canonical vocabulary |
| Reproducer / reviewer | Reproduction commands | certificates · tests · correction ledger |
| Lattice / deformation researcher | Determinant-law paper | eigenlattice table |
| Photonic / systems reader | Photonic Holonet · source | HOLONET.md; treat implementation claims as conditional |
| Runtime / distributed-systems builder | HoloBox evidence card · CLI | finite controller card · runtime guide · focused regression |
| Assessing whether to fund this | Machine blueprint, Part I | then What is not built and the errata index, both at the end of that document |
The corpus is too large to navigate by filenames. Search the result itself
in RESULTS_INDEX.md before re-deriving it.
All three share one reader convention: cream boxes are plain language, blue boxes carry exact statements with scope, and rose boxes retain claims this project published and then withdrew together with the measurement that overturned them. The machine blueprint has full plain-language coverage; the two research atlases currently provide a reader guide and selected plain-language entries, not a cream-box paraphrase of every section.
| Document | Pages | What it is |
|---|---|---|
holonet_machine_blueprint.tex |
205 | A computer specified by the geometry — instruction set, gate counts, thermodynamics. Six parts, each opening in plain language. |
w33_paper.tex |
477 | The research atlas: everything established about W(3,3), evidence-tiered. |
photonic_holonet.tex |
347 | One self-entangled photon as computer, network and clock. |
All three build with zero errors and zero undefined references, enforced in CI
(.github/workflows/manuscripts-compile.yml) — an undefined reference is only a warning
in LaTeX, so three of them once shipped through hundreds of clean builds.
Two independent asymmetries in the instruction set mean four possible machines, not one. Reported together because no two are the same design and the prices do not substitute:
| machine | opcodes | p/f swap | mixing | ρ(B) | localisation peak | entropy production |
|---|---|---|---|---|---|---|
| A — biased, irreversible (shipped) | 4 | no | 15 | 5.7469 | 0.6129 | infinite |
| B — symmetric, irreversible | 6 | yes | 12 | 8.7621 | 0.4604 | infinite |
| C — biased, reversible | 8 | no | 16 | 5.7469 | 0.6129 | 0 |
| D — symmetric, reversible | 12 | yes | 13 | 8.7621 | 0.4604 | 0 |
C shares A's spectrum exactly: closing an instruction set under inverses adds no new undirected edges, so it changes directed thermodynamic bookkeeping without changing that simple graph. Exact conjugation by the p/f pair swap proves B and D are symmetric and A and C are not. Machine D therefore removes both named asymmetries in the finite model. Its 0.4604 peak is symmetric within-pair localisation, not residual p/f bias. These rows are analytic opcode/graph measurements; only A/C have earlier generic-cell synthesis, so B/D hardware pricing remains open.
The 160 W(3,3) chambers carry two native three-way switches: change the line at a fixed
point (P) or the point on a fixed line (L). GAP proves
[ P^2=2P+3I,\qquad L^2=2L+3I,\qquad PLPL=LPLP, ]
and the generated algebra has dimension 8: the full q=3 type-C2 Iwahori–Hecke image. In the 320-state oriented Levi basis,
[ B_{\rm Levi}=\begin{pmatrix}0&L\P&0\end{pmatrix}, \qquad B_{\rm Levi}^2=\operatorname{diag}(LP,PL). ]
The chirality Ω=LP−PL has rank 48 and exact projector Π₄₈=−Ω²/60; on that packet,
Ω/√60 is a complex structure. The old folded cubic now has the exact normal form
[ F=-68\Pi_{48}-31X-\frac{21}{2}\Omega+\frac23X\Omega, \qquad (F+68\Pi_{48})^2=-689\Pi_{48}. ]
Pass 4334 makes the 24+24 count literal. Lift the eigenvalue-2 projectors of the W33
point graph and dual line graph to chamber projectors Qₚ,Qℓ. Their rank-24 images meet
only in zero and span im Π₄₈; moreover
[ Q_pQ_\ell Q_p=\frac38Q_p,\qquad Q_\ell Q_pQ_\ell=\frac38Q_\ell. ]
All 24 principal angles therefore have cosine √6/4, and for Q=Qₚ+Qℓ the orthogonal
span projector is Π₄₈=(8/5)(2Q−Q²). The conjugate packet is exactly the joined point and
line eigencarriers, not merely a matching dimension count.
Pass 4936 now splits that same four-dimensional packet algebra into literal rational matrix
units eᵢⱼeₖℓ=δⱼₖeᵢℓ. Consequently it is exactly M₂(Q) on a two-state multiplicity
coordinate repeated over 24 representation lanes. With Z=e₁₁−e₂₂ and S=e₁₂+e₂₁,
[ Z^2=S^2=\Pi_{48},\qquad ZS=-SZ,\qquad (SZ)^2=-\Pi_{48}. ]
This is an exact algebraic logic switch, not 24 physical qubits or a synthesized unitary gate.
The three chart-dependent HoloBox HP selectors sum to the intrinsic point panel, and the
three HL selectors sum to the line panel. Only those complete family aggregates compress to
the two packet reflections. No individual-selector packet intertwiner is asserted.
Reproduce it with the GAP witness and focused regression, plus the Pass-4334 carrier witness and regression, then the Pass-4936 matrix-unit witness and regression. The operators and family checksum are exact finite relations; a deterministic three-way selector and synthesized chamber datapath are not yet built.
Pass 4864 identifies the ten-dimensional ternary quotient outside the oriented K₃,₃ span
with sp₄(F₃). Pass 4861 independently proves that full three-port matching removes the
local S₃⁴⁵ sheet gauge and leaves one global PGSp(4,3) frame. Pass 4937 composes those
certified objects into the affine update
[ v\longmapsto vA_g+w,\qquad \mathbb F_3^{10}\rtimes PGSp(4,3),\qquad |\mathbb F_3^{10}\rtimes PGSp(4,3)|=3{,}061{,}100{,}160. ]
The 59,049 offsets fall into exactly 17 PGSp(4,3) orbits, so the result already supplies
a complete finite state taxonomy. It does not supply a canonical-representative compiler or
a HoloBox opcode. The equal-order group Sp₄(F₃[ε]/ε²) is not this controller: their center
orders are 2 and 1 respectively, and the square-zero tangent kernel is abelian even though
its transported Lie algebra is not. See the public controller card,
exact GAP witness, and
byte-exact regression.
The previously pending q=5 action gate has now executed. The selected 13-cover has one
fixed vertex and a moving twelve on which the stabilizer is exactly T12_165, with an
explicit conjugator to the independently built Klein-Latin action:
[1,9,4,8,12,7,10,2,5,3,6,11]
That closes the object-level chain from the q=5 cover to the twelve antipodal short-root
pairs of F₄. More importantly, the q=5 object explains the Reye configuration internally.
The 312 outside vertices give a 2-(13,6,60) multidesign whose triple-containment spectrum
is exactly 0^16,16^30,24^240; the sixteen zero triples avoid the fixed point and form
12₄16₃. Their Levi automorphism group has order 576, acting as T12_165 on points and
T16_1034 on lines.
The same abstract group is odd on the twelve-carrier but wholly even on the sixteen-carrier.
Its point-side sign kernel is SmallGroup(288,1025) ≅ 2⁴:(C₃×S₃), literally transported
to the even-Latin group already linked by Pass 5300 to the Hoffman stabilizer quotient.
And on the natural twelve-symbol carrier, every one of the 23,760 placements of the natural
degree-seven PSL(2,7) (plus five fixed symbols) generates full S₁₂ together with
T12_165—not a hypothetical order-4032 intermediate.
These are finite permutation-group and multidesign theorems. The PSL(2,7) statement is
scoped to the natural 7+1⁵ action, and the result does not imply continuum dynamics or a
physical unification. The point and heavy-support twelves are exchanged by an explicit
outer involution of the source group: a displayed order-eight lift squares to an inner
automorphism, and exactly 48 inner re-gaugings give order-two outer representatives.
That involution is not the point-side sign twist. The point, heavy, and line permutation
characters have self inner products 3 and pairwise inner products 2, whereas the
sign-twisted point character has inner product 0 with both heavy and line. Thus sign
tensoring is neither the source outer involution nor the even line carrier. See
the synthesis,
56-check certificate,
and byte-exact regression.
analysis/holobox.py now turns the 40-ary Holonet law into
an executable, immutable runtime object. A leaf VM and a network of 40 child VMs
use the same state media type and loader. More importantly, the identity is
operational: address a nested guest, route it a mailbox value, execute it, and
checkpoint the result by replacing only the digests on that one path.
At six levels, a uniform HoloBox denotes 105,025,641 internal network VMs plus
4,096,000,000 addressable leaf VMs: 4,201,025,641 stateful VMs represented by
only seven unique node blobs. In the frozen fresh transition, a depth-six
delivery creates seven path-state blobs plus one receipt; recipient execution
creates seven path-state blobs. These are upper bounds for arbitrary writes,
because a content-identical replay may allocate no new CAS key. Untouched
sibling digests remain byte-identical. Recursive routes use no stored
next-hop table and take at most two W33 line transactions per radix-40 address
digit. This 2n logical metric is distinct from BT827's 8n chart-aware
lowering (3 cube + 5 chart-web moves per digit). The frozen Python reference
witness is 19/19 PASS, with an independent 7/7 GAP route certificate.
python3 analysis/holobox.py build --output /tmp/holobox --levels 6 \
--program RECV,HALT
python3 analysis/holobox.py send /tmp/holobox --source 0/0/0/0/0/0 \
--target 3/10/17/24/31/38 --message 13 --output /tmp/holobox-message
python3 analysis/holobox.py run /tmp/holobox-message --address 3/10/17/24/31/38 \
--commit /tmp/holobox-run
python3 analysis/holobox.py verify /tmp/holobox-runBT339 owns the earlier 2n hierarchy assertion, BT350 the nested-VM framing,
Passes 2642--2644 the same-port recursive hardware module, and the older Witting
architecture the CID-container, WASM/OCI, policy, receipt, and Projection Engine
design. HoloBox implements the previously missing nested lifecycle and content
graph; it does not claim those earlier ideas. Its bundle is OCI-shaped, not yet
OCI-conformant, and the Python model
is not Linux/KVM isolation, a guest kernel, confidential-computing attestation,
or a performance result. See the runtime guide,
19-check certificate, and
GAP route witness.
- Pass 4253's Z₍₂₇₃₁₎ lift has an explicit zero-voltage eight-cycle, hence girth exactly 8, not at least 16. The valid current high-girth construction is the much larger Pass 4261 Z₍₇₅₀₀₁₉₎ lift.
- The irregular Kotani–Sunada non-real-pole annulus has square roots. The former no-square-root “band filling”/“closest irregular Ramanujan” score is withdrawn.
- Affine translations act on 81 frames but descend to neither projective 40-carrier; they do not force a point-side projective load port.
- Pass 4331's linear-opcode mismatch incidence census detects 1656/1920 = 69/80 differential rail substitutions and 0/960 shared-control substitutions. It is narrower than the Pass 4367/4374 intrinsic flag-register comparator, which detects 36/39 = 12/13 arbitrary one-register substitutions at q=3. The former 95.71% result used a golden run.
- The complete universal-set census is 360, and the shipped ISA is tied 7th–12th by the reported ρ value, not strictly 12th.
The exact correction witness is Passes 4328–4333; the readable evidence map is here.
| Tier | What it means |
|---|---|
PROVED |
A mathematical proof or named formal theorem. If Lean-owned, build the specific module; do not infer a green library from a file's existence. |
CERTIFIED |
Exact computation with a deterministic witness, certificate, and focused test. |
CONDITIONAL |
The finite mathematics is sound; an interpretation or implementation map is still missing. |
OPEN |
A precise question with no completed witness. |
RETRACTED |
Previously promoted, then refuted; retained with the failure certificate. |
| Name | Canonical meaning |
|---|---|
Γ = W33 |
The graph obtained from symplectic orthogonality on PG(3,3), not an arbitrary SRG(40,12,2,4); 28 graphs share the parameters. |
G₀ |
PSp(4,3), order 25,920, the inner projective symmetry. |
G = Aut(Γ) |
PGSp(4,3) ≅ W(E6), order 51,840. The same-order group Sp(4,3) is a central double cover, not this faithful projective action. |
H₁(Γ) |
Z^81, the first homology of the clique complex. |
Y₄₈₀ |
The 480 directed edges of W33, carrying the signed-turn operator K. |
X₄₃₂ |
W(E6)/S5, equivalently the directed edges of the Schläfli graph. |
81₋ |
The Pass-1147 constituent in Λ²(Aug(Q^27)); it is not silently identified with H₁(Γ). |
H₂₆ |
End_G(X₄₃₂), the literal 26-dimensional coset Hecke algebra. |
| Selector orbital algebra | End_H(Q^120), dimension 83; its 83 rational matrix units do not belong to H₂₆. |
Γctrl |
The abstract independent-clock group (C₄×C₆):C₂, order 48, requiring two complex phase registers for faithfulness over Q. |
ΓJ |
The canonical single-J quotient C₁₂:C₂, order 24; kernel ⟨(2,3,0)⟩. |
| Arithmetic phase carrier | The overlapping three-coordinate action ⟨R₄,U₆⟩=SL₃(Z); infinite and not a smaller representation of Γctrl. |
For aliases, superseded names, and pass ownership, use
RESULTS_VOCABULARY.md,
data/ALIAS_REGISTRY.json, and
data/w33_pass_namespace_registry_v2.json.
flowchart TD
V["(F₃⁴, alternating form)"] --> W["W(3,3): 40 points, 40 lines, 240 edges"]
W --> C["clique complex: H₁ ≅ Z⁸¹"]
W --> SP["spec(A)=12¹,2²⁴,(−4)¹⁵<br/>spec(A−I)=11¹,1²⁴,(−5)¹⁵"]
W --> A["adjacency and signed-turn lattices"]
A --> L["Smith forms and prime-by-prime gluing"]
L --> CO["coalescence: the p-part is carried<br/>by eigenvalues colliding mod p"]
W --> Y["Y₄₈₀ directed-edge carrier"]
W --> F["540 frames = disjoint line pairs<br/>stab in PSp: C₂×S₄ (order 48)<br/>stab in PGSp: C₂²×S₄ (order 96)"]
F --> FA["derived subgroup A₄ acts faithfully<br/>on each line's 4 points"]
FA --> FM["canonical 4-edge cross-matching<br/>540 frames → 240 edges, 9-to-1"]
S["Schläfli graph on 27 lines"] --> X["X₄₃₂ = W(E₆)/S₅"]
X --> T["rank-81 odd transform; 216 tight-frame lines"]
T --> I["integral bad primes {2,5}"]
X --> ST["3×81 Steinberg carrier:<br/>three conjugate 432-orbits, stabiliser S₅"]
ST --> STP["S₅ ⊄ PSp(4,3); S₅ ∩ PSp(4,3) = A₅"]
X --> H["H₂₆ = End_G(X₄₃₂), three-carrier triality"]
H --> J["234 → 78 → 52; Hecke bad primes {2,3,5}"]
J --> R["modular radicals: 21→17→13→7→2→0 at p=2"]
X --> B["ambient p=5 group block:<br/>Brauer tree 1−24−81−64−6<br/>Ext¹(23,58)=Ext¹(58,23)=1"]
R --> P["Cartan/PIM at p=2,3,5; idempotents through p⁶"]
H --> Q["global cycle orbit 120 = 40 lines × 3 matchings<br/>cycle + copy orbit 360"]
Q --> SA["120-selector orbital algebra, dimension 83"]
SA --> MU["83 rational matrix units:<br/>Q⁷⊕M₂(Q)²⊕M₃(Q)³⊕M₄(Q)⊕M₅(Q)"]
Q --> QO["no maximal subgroup holding a 432-selector<br/>stabiliser contains the S₅"]
W --> RS["regular spreads for every odd q:<br/>closed SRG parameters"]
RS --> RT["q=27 Ree–Tits control:<br/>five nonregular intersection sizes"]
CTRL["abstract controller, order 48<br/>minimal faithful Q-degree 4"] --> CJ["single-J image, order 24"]
CTRL --> AR["overlap phase planes in rank 3"]
AR --> SL["SL₃(Z); no rational common inverter<br/>R₄²U₆ has spectral radius φ"]
| Mathematical object | Strongest current result | Tier | Canonical entry |
|---|---|---|---|
| Symplectic quadrangle | SRG(40,12,2,4), spectrum 12^1,2^24,(−4)^15, Aut ≅ W(E6) |
PROVED |
master paper |
| Clique complex | H₁ ≅ Z^81; qutrit CSS sector [[240,81,3]]₃ with (d_X,d_Z)=(3,4) |
CERTIFIED |
Passes 373–374 |
| Integral adjacency | SNF(A)=diag(1^16,2^8,8^15,24); saturated gluing (Z/2)^6⊕(Z/6)^9⊕Z/120 |
CERTIFIED |
pass827 |
| Ramified gluing | Kernel growth 40,80,119,158,182 reconstructs Z/8⊕(Z/2)^15 at p=2 |
CERTIFIED |
Pass 1002 release |
| Signed directed edges | spec(K)=(−6)^81,2^120,4^24,10^15; exact four-branch gluing |
CERTIFIED |
pass826 |
| Schläfli/E₆ carrier | X₄₃₂ maps with rank 81 to 216 antipodal tight-frame lines; three colours give rank 243, and adjoining the disjoint rank-45 cubic block gives rank 288 with residual 1952 |
CERTIFIED |
Pass 1147 |
| Integral Schläfli frame | Smith profile 1^15,2^6,4^8,8^29,40^23; internal bad primes {2,5}; colour split index 3^81 |
CERTIFIED |
Pass 1147 |
| Saturated frame mod 5 | Nonsplit 0→I₅₈→S₅→K(W33)₍₅₎⊗sgn→0; Ext¹(23,58)=Ext¹(58,23)=1 over both groups, so this is the unique nonzero extension type up to endpoint rescaling |
CERTIFIED |
Pass 1147 · Pass 1335 |
| Three-carrier Hecke/triality | Commutants 234 → 78 → 52; six-channel SNF 1,1,1,12,12,24; Hecke bad primes {2,3,5}; invariant cycles do not select a copy |
CERTIFIED |
Passes 1325–1329 |
Modular H₂₆ |
Radical powers at p=2,3,5 are 21,17,13,7,2,0; 22,16,10,4,0; 6,2,0; the exceptional p=5 scalar Ext quiver is doubled A₃, a condensation shadow of the same cyclic-defect block |
CERTIFIED |
Passes 1330–1334 · Pass 1335 |
| Rational degree-20 model | Exact 20×20 rational standard generators satisfy C²=D⁹=(CD)¹⁰=I; GAP affords faithful images of order 51,840 and uniquely matches CTblLib row 11. The reported literal-480 derivation remains provenance, not rebuilt here. |
CERTIFIED |
Pass 1341 analysis |
| Binary quadratic-residue code | Corrected code [[137,1,21]]; exact affine/real-Clifford towers and explicit parity boundaries |
CERTIFIED |
Passes 358–367 |
| Section trace tower | For every m≥2, min_c v_λ(tr(D_c^m)) = 2(m+[m odd]) at q=3 |
CERTIFIED |
Pass 541 |
H₂₆ Cartan/PIM and p-adic refinement |
C₂=diag(1,22), C₃, C₅=I₆⊕[[2,1,1],[1,1,0],[1,0,2]]; PIM dimensions (2,22), (9,6,10,1), (3,2,1,1,1,1,4,2,3); primitive systems verified through p⁶; Smith and Loewy filtrations differ |
CERTIFIED |
Passes 1340–1344 |
| Global cycle/copy selector bound | Exact GAP path-stabilizer proof: global simple-cycle orbit minimum 120 at length 4; a primitive copy idempotent gives 360; cycles alone act as C⊗I₃ |
CERTIFIED |
GAP witness |
| Shifted adjacency | spec(A−I) = 11¹,1²⁴,(−5)¹⁵, m_D(t)=(t−11)(t−1)(t+5); the historical cubic (t+1)[(t+1)²−36] annihilates no eigenspace (rank p_old(D)=40) |
CERTIFIED |
erratum |
| Steinberg carrier stabiliser | Three conjugate 432-orbits, stabiliser S₅ = SmallGroup[120,34]; the later refinement gives S₅ ∩ PSp(4,3) = A₅ and the maximal-subgroup obstruction |
CERTIFIED |
Pass 1134 owner · Pass 1375 refinement |
| Tomotope, from its own paper | Γ(T)=[96,227]=2⁴:S₃, Γ(T)′=[48,50]=2⁴:C₃, built from the published generators. Aut(T) satisfies the intersection condition — Mon(T) is what fails |
CERTIFIED |
Pass 1376 |
| Frame cross-matching | Pass 1355 owns the unique collinearity transversal; Pass 1390 independently characterizes it as the unique A₄-equivariant bijection and proves uniform 9-to-1 coverage |
CERTIFIED |
Pass 1355 owner · Pass 1390 refinement |
| Frames are not polytope facets | O_h is a string C-group {4,3}, but no rank-4 string C-group extends it in PSp(4,3) |
CERTIFIED |
Pass 1377 |
| Exact-cover orbit frontier | Two disjoint deterministic prefixes independently hit the same 327 complete PSp(4,3) orbits, whose sizes sum to 3,547,800; global completeness remains open |
CERTIFIED |
Pass 1510 audit |
All-odd-q regular-spread graph |
v=q²(q²−1)/2, k=q(q−2)(q²+1)/2, λ=q(q³−4q²+7q−8)/2, μ=q(q−2)(q−1)²/2; nontrivial eigenvalues q(q−2),−q |
PROVED / CERTIFIED |
Passes 2200–2206 |
| Controller representation trichotomy | Finite abstract order 48 / canonical order 24 / infinite SL₃(Z) are distinct; minimal faithful rational degree 4 and common-inverter nullity 0 |
CERTIFIED |
Pass 2306 |
Complete q=27 named-family codes |
All four standard coordinate families have hyperplane sections 1 mod 9; the regular code is 27-divisible [730,4]₂₇, while three nonregular codes are exactly 9-divisible [730,5]₂₇ |
CERTIFIED |
Pass 2304 |
| Complete quadratic Hom bases | Every nonzero basis map is target-surjective; full dimensions total 26 symmetric and 24 alternating, with outer-even and outer-odd halves both dimension 25 |
CERTIFIED |
Pass 2301 |
Quadratic Hom S₃ character |
Sym=13·1⊕3·sgn⊕5·std, Λ=3·1⊕13·sgn⊕4·std, combined 16·1⊕16·sgn⊕9·std; explains 25+25 and 32+18 |
CERTIFIED |
Pass 2307 |
Each of the three 432-state A₂ colours is the directed-edge set of
SRG(27,16,10,8). GAP constructs the explicit odd transform into 81₋;
its 432 vectors form 216 antipodal lines with G²=3200G and angles
0,1/15,1/5. One colour has Smith profile
1^15,2^6,4^8,8^29,40^23; the three-colour Fourier split adds index
3^81. Modulo 5, the saturated 81-space is not 58⊕23: it is the nonsplit
length-two module
0→I₅₈→S₅→K(W33)₍₅₎⊗sgn→0, with a unique proper nonzero submodule.
Pass 1335 identifies the cyclic-defect Brauer tree and proves both directed
cross-Ext¹ spaces have dimension one, so this nonsplit module exhausts the
previously open extension class. The Hecke radical records a condensed
doubled-A₃ shadow; it is not the module itself.
The next algebra layer is explicit as well: Pass 1340 computes the Cartan and
projective-indecomposable data at 2,3,5, while Pass 1343 lifts complete
primitive systems through p^6 and proves that the Smith and Loewy filtrations
are genuinely different. Separately, GAP proves that the 120-element
length-4 cycle orbit is globally minimal, so selecting one of the three
species-20 copies costs a minimum orbit 360; this quantifies a gauge choice
without pretending the choice is canonical.
This is an exact theorem about named W(E6) modules and integral lattices. It
does not identify generations, Yukawa couplings, particles, or optical modes.
- Search a formula, integer sequence, or code parameter in
RESULTS_INDEX.md. - Resolve aliases and retractions in
RESULTS_VOCABULARY.mdanddata/ALIAS_REGISTRY.json. - Open the owning synthesis, then the executable witness and JSON certificate.
- Run the focused test. A later pass that repeats the number is not a new owner.
Every promoted bridge should name its source object, target object, and map. Matching dimensions or group orders are evidence to investigate, not maps.
The finite-geometry tables immediately below are derived from
(q, k, λ, μ) = (3, 12, 2, 4) and the graph itself. Later sections explicitly
name any additional representation-theory, coding-theory, experimental, or
interpretive input. Status is honest:
PROVED = machine-checked or proved in the paper; CERTIFIED = exact computation with an idempotent JSON
certificate; OPEN = stated, not settled; RETRACTED = we published it, then killed it.
| Quantity | Symbolic derivation | Value | Status | Witness |
|---|---|---|---|---|
Eigenvalues r, s |
r,s = ½[(λ−μ) ± √((λ−μ)² + 4(k−μ))] |
2, −4 |
PROVED | SRG theory |
Spectral gap r−s |
√((λ−μ)² + 4(k−μ)) = √36 |
6 |
PROVED | ” |
Multiplicities f, g |
f,g = ½[(n−1) ∓ (2k+(n−1)(λ−μ))/(r−s)] |
24, 15 |
PROVED | ” |
| Edge count | nk/2 = 40·12/2 |
240 |
PROVED | ” |
| Ramanujan bound | |λ_nontrivial| ≤ 2√(k−1) = 2√11 ≈ 6.633 |
4 ≤ 6.633 ✓ |
PROVED | w33_paper.tex |
H_1 of clique complex |
dim = |E| − rank d₁ − rank d₂ = 240−39−120 |
Z^81 |
CERTIFIED | w33_pass682_* |
| Quantity | Symbolic derivation | Value | Status |
|---|---|---|---|
| Zero locus | roots of 1 − λu + (k−1)u² = 0, per eigenvalue λ |
— | PROVED |
| Zero radius | |u| = 1/√(k−1) |
1/√11 ≈ 0.3015 |
PROVED |
| Zero phase | φ = arccos( λ / (2√(k−1)) ) |
— | PROVED |
| Gauge phase | φ_g = arccos(2/2√11) = arctan√Φ₄(3), Φ₄(3)=3²+1 |
72.45° |
PROVED |
| Chiral phase | φ_c = arccos(−4/2√11), involves Φ₆(3)=3²−3+1 |
127.09° |
PROVED |
| Graph RH ⟺ Ramanujan | standard equivalence (Terras) — not new | — | PROVED |
The 72.45° and 127.09° phases are real, exact, and were in w33_paper.tex before three separate
"discoveries" of them. See the retractions.
This is the newest frontier and the one with live theorems. L_c = ker(A − cI) denotes a saturated
eigenlattice.
| Quantity | Symbolic derivation | Value | Status | Witness |
|---|---|---|---|---|
| Two-branch gluing | S(S−cI)=0, S=[[cI,Y],[0,0]] ⟹ Z^n/(L_c⊕L_0) ≅ ⊕ᵢ Z/(c/gcd(dᵢ,c)), dᵢ = Smith(Y) |
— | PROVED | pass806 + Lean |
| k-branch gluing | Nᵢ=∏_{j≠i}(S−c_j), Dᵢ=∏_{j≠i}(cᵢ−c_j) ⟹ Z^n/⊕Lᵢ = Z^n/⋂ᵢ ker(Nᵢ mod Dᵢ) |
— | CERTIFIED | pass809 |
| Coalescence theorem | for v_p(M)=1, M=lcm(Dᵢ): p-part = (Z/p)^{r_p}, r_p = rank_{F_p} of the Nᵢ with p∣Dᵢ; and p∣Dᵢ ⟺ cᵢ≡c_j (mod p) |
— | CERTIFIED | pass828 |
| ⤷ in words | the p-part is carried entirely by eigenvalues that collide mod p | — | ” | ” |
| Adjacency 3-branch gluing | Z^40/(L₁₂⊕L₂⊕L₋₄) |
(Z/2)⁶⊕(Z/6)⁹⊕Z/120 |
CERTIFIED | pass827 |
| ⤷ primary form | — | (Z/2)¹⁵⊕Z/8⊕(Z/3)¹⁰⊕Z/5 |
” | ” |
| Collision structure | {12,2,−4} ≡ {12},{2,−4} mod 3; {12,2},{−4} mod 5 |
ranks 10, 1 |
CERTIFIED | pass828 |
K four-branch gluing |
Z^240/⊕Lᵢ, spectrum {−6,2,4,10} |
(Z/32)¹⁴⊕(Z/8)⊕(Z/4)⁶⁶⊕(Z/2)²³⊕(Z/3)¹⁰⊕(Z/5)²³ |
CERTIFIED | pass826 |
| Discriminant identity | ∏ᵢ det(Lᵢ) = [Z^n : ⊕Lᵢ]² = |gluing|² |
2³⁶·3²⁰·5² ✓ |
CERTIFIED | pass829 |
det(L₂) |
Gram determinant of the +2-eigenlattice |
2¹⁶·3¹⁰·5 |
CERTIFIED | ” |
det(L₋₄) |
forced by the identity; not in the paper | 2¹⁷·3¹⁰ |
CERTIFIED | ” |
L₂ discriminant group |
L₂^#/L₂ |
(Z/2)¹⁶⊕(Z/3)¹⁰⊕Z/5 |
PROVED | w33_paper.tex |
| Rigidity | (a−b) ∣ f(a)−f(b) ∀f∈Z[x] ⟹ collisions are functorial ⟹ gluing support is an invariant of Z[S], not S |
— | PROVED | pass876 |
| ⤷ consequence | eigenlattices split ⟺ gap is a unit; adjacency gaps are 10,16,6 ⟹ no f(A) splits Z^40 |
— | PROVED | ” |
| Coalescence = p-rank | for an {r,s} collision, r_p = rank_{F_p}((A−kI)(A−rI)) — a classical SRG p-rank |
— | CERTIFIED | pass983 |
| Gluing ≻ spectrum | on cospectral T(8) / Chang: (Z/2)⁶⊕Z/4 vs (Z/2)⁷⊕Z/4 — separates them |
— | CERTIFIED | pass984 |
| Signed edge action | Aut acts on oriented edges by signed permutations; commutes with K (8/8) |
— | CERTIFIED | ” |
| Quantity | Symbolic derivation | Value | Status |
|---|---|---|---|
| Flat-block quadratic | F² + 2F − (q²−1)I = 0 |
eigenvalues −1±q, gap 2q |
PROVED |
| Order bridge | S = F + (q+1)I ⟹ S² − 2qS = 0 |
node, branches {0,2q} |
PROVED |
| Abstract Ext quiver | over Z_p: (Ext¹_self, Ext¹_cross, Ext²_self, Ext²_cross) |
(0, Z/p^{v_p(2q)}, Z/p^{v_p(2q)}, 0) |
PROVED |
q=2 fibre = S8 commutant |
Z₂[S]/(S²−4S), Ext = Z/4, Kuranishi cone xy=0 |
— | PROVED |
| Key congruence | F ≡ −I (mod q) |
verified q ≤ 13 |
CERTIFIED |
| Real gluing | Z^n/(L_{q−1}⊕L_{−(q+1)}) = im((F+(q+1)I) mod 2q) |
(Z/2)^{(q−1)²/2} |
CERTIFIED |
⤷ at q=3,5,7 |
— | (Z/2)², (Z/2)⁸, (Z/2)¹⁸ |
CERTIFIED |
| Burnside orbit count | |Fix_all(g)| = (pⁿ)^{c⁺(g)}, |SL(2,Z/pⁿ)| = p^{3n−2}(p²−1) on (p^{2n}−1)/2 pairs |
all odd Z/pⁿ |
PROVED |
| ⤷ exact values | F_3 → 7; F_5 → 2,034,735; Z/9 → 228100045392509153077600971330057241 |
— | CERTIFIED |
This is the program's most ambitious arc and its most contested. Every row's arithmetic is exact and
verified; the physical interpretation of each is CONDITIONAL — the identification of a combinatorial
object with a physical one is a map that must be built, not inferred from a matching integer. Read the
retractions alongside this table.
| Step | Symbolic identity | Reading | Status |
|---|---|---|---|
| 1. Geometry | W(3,3) = isotropic points/lines of (F_3^4, ω) |
the substrate; no free parameters | PROVED |
| 2. Homology | H_1(clique complex) = Z^81, 81 = 3^4 |
"homology reveals matter" | PROVED / CONDITIONAL |
| 3. Vertex split | 40 = 1 + 24 + 15 (eigenvalue multiplicities) |
1 vacuum, 24 = dim adj SU(5), 15 Weyl spinors/generation |
CERTIFIED / CONDITIONAL |
| 4. Generations | 240 = 40 × 3 × 2: each K_4 line has 3 perfect matchings (labelled by GF(3)), each 2 edges |
three generations from ` | GF(3) |
| ⤷ refined | 240 = 72 + 6 + 81 + 81 = 3 × (24 + 2 + 27 + 27), per-generation 80 = 4+4+36+36 |
Sp(4,3) is edge-transitive — a single orbit |
CERTIFIED |
| 5. Gauge group | k = (k−μ) + q + 1 = 8 + 3 + 1 = 12 |
dim SU(3)=8, dim SU(2)=3, dim U(1)=1 |
CERTIFIED / CONDITIONAL |
| ⤷ forced identity | 2q = λ + μ (6 = 2+4) holds automatically for W(q,q) |
the split is not chosen | PROVED |
| 6. Matter sector | v − 1 − k = 40 − 1 − 12 = 27 |
fix a vacuum vertex: 27 non-neighbours carry E_6 fundamental, since |Aut| = 51,840 = |W(E_6)| |
CERTIFIED / CONDITIONAL |
| ⤷ branching | 27 = 16 + 10 + 1 under E_6 ⊃ SO(10) ⊃ SU(5) |
one generation + Higgs + singlet | PROVED (rep theory) |
| 6b. E₈ boundary | 240 = |Φ(E_8)| |
The global W33-edge map is obstructed; the distinct 40×3×2 local-axis endpoint carrier has an explicit integral lift onto all 240 signed roots; a different transitive subgroup embedding remains open |
CERTIFIED / OPEN (local-axis lift) |
| 7. Curved 4D | KO-dim = 6 = 2q (Connes–Barrett) |
4D spacetime as a derived quantity | CONDITIONAL |
| α (fine structure) | Hashimoto operator B on 480 = 2×240 directed edges |
a spectral identity on the non-backtracking carrier, not a fit | CONDITIONAL |
| Koide / flavour | residual packet 98 · 17 · 208, 208 = 4·dim(F_4) = 4·52 |
factor arithmetic closed; physical identification open | OPEN |
| CKM from Ihara phases | δ_CP ≟ φ_gauge = 72.45° |
REFUTED — see below | RETRACTED |
The honest summary of this arc: the decompositions are exact and the group theory is real. Whether
24 = dim adj SU(5) is physics or coincidence is exactly the kind of claim this repository has learned to
tier rather than assert.
The repository contains 50+ constant tables of varying quality. This one is built by evaluating every closed form and comparing against PDG-2025 in experimental σ, not percent. Two things follow, and both matter more than any individual row.
First: of the 14 closed forms in the most-cited ledger, only 5 evaluate to their own stated value. The numbers may well be right; the formulas as written are not. A reader who checks will find this in minutes, so it is recorded here rather than reproduced.
| Observable | Closed form as written | Evaluates to | Claimed | PDG-2025 | σ | Verdict |
|---|---|---|---|---|---|---|
N_ν |
q |
3 | 3 | 3 (exact) | — | ✅ exact |
sin²θ₂₃ (PMNS) |
7/13 |
0.53846 | 0.5385 | 0.546 ± 0.021 | 0.4 | ✅ agrees |
m_t (pole) |
v_EW/√2 |
173.948 GeV | 173.95 | 172.57 ± 0.29 | 4.8 | |
sin²θ_W (dressed) |
q/(q²+q+1) = 3/13 |
0.230769 | 0.23077 | 0.23122 ± 0.00003 | 15.0 | |
α⁻¹ (integer skeleton) |
k² − (|r|+|s|+1) = 144−7 |
137 | 137 | 137.035 999 178(8) | — | ✅ integer only; the .036 is not derived |
|V_us| |
√(3/v)·k |
3.286 | 0.2253 | 0.2245 ± 0.0008 | — | ❌ formula ≠ claim |
m_H |
1/(q⁻⁵) = q⁵ |
243 | 125.0 | 125.25 ± 0.17 | — | ❌ formula ≠ claim |
m_W |
v_EW√((1−3/13)/2) |
152.56 | 80.44 | 80.369 ± 0.013 | — | ❌ formula ≠ claim |
H₀ |
12/q! |
2.0 | 67.0 | 67.4 ± 0.5 | — | ❌ formula ≠ claim |
n_s |
1 − 2/(q·q) |
0.7778 | 0.9667 | 0.965 ± 0.004 | — | ❌ formula ≠ claim |
Ω_Λ |
1 − 1/(k·Φ₄/10) |
0.9167 | 0.6833 | 0.685 ± 0.007 | — | ❌ formula ≠ claim |
sin²θ₁₂ (PMNS) |
3/(4·13) = 3/52 |
0.05769 | 0.3077 | 0.307 ± 0.013 | — | ❌ formula ≠ claim |
sin²θ₁₃ (PMNS) |
3/(6·29) |
0.01724 | 0.02198 | 0.0220 ± 0.0007 | — | ❌ formula ≠ claim |
α⁻¹ (ledger form) |
k² + (k−1)² + λ |
267 | 137.036 | 137.036 | — | ❌ formula ≠ claim |
And most of the broken rows cannot be repaired. Searching 7,128 expressions built from eighteen
W(3,3) atoms, four targets — m_H, Ω_Λ, sin²θ₁₃ and m_W/v_EW — are reached by nothing at all, so
they should be withdrawn, not rewritten. The rest do have hits, but 36 hits for sin²θ₁₂ is what chance
gives in a space that size: a hit found by search is a candidate for a derivation, not a derivation.
(pass1010)
Second: even the formulas that evaluate correctly are mostly excluded by experiment. sin²θ_W is 15σ
from the measured value and m_t is 4.8σ. Exactly two rows survive both tests — N_ν = q = 3, and
sin²θ₂₃ = 7/13 at 0.4σ. That is the honest state of the constant program: one exact integer count, one
genuine agreement, and a great deal that needs its formulas re-derived before it can be called a derivation.
The combinatorial identities in the physics chain above are a different matter — those are exact and verified. The gap is between counting the geometry, which works, and predicting a dimensionful constant, which so far does not.
Not a constant, but the strongest physics-adjacent claim that survives checking. The eight vertices
[7, 1, 0, 13, 24, 28, 37, 16] induce a subgraph of W(3,3) that is the E₈ Dynkin diagram:
| Check | Result |
|---|---|
| induced degree sequence | [1,1,1,2,2,2,2,3] — E₈ Dynkin exactly |
Gram 2I − A_sub |
positive definite |
det(Gram) |
1 — the E₈ Cartan determinant |
So E₈'s Cartan matrix is realised on eight points of the geometry.
But the 240 = 240 edge–root correspondence is now known to be obstructed. The repository's own solvers
recorded that the edge graph is 22-regular and the root graph 56-regular, so no graph isomorphism exists,
and spent many passes seeking an equivariant bijection instead. That map does not exist either, for the
embedding they assumed:
| orbits under the 51,840-element group | |
|---|---|
| 240 W(3,3) edges | one orbit (transitive, stabiliser 216) |
240 E₈ roots, under E₆ × A₂ |
four orbits: 72 + 6 + 81 + 81 |
An equivariant bijection carries orbits to orbits of equal size, so one orbit cannot map onto four. The
failed searches were not failing for want of effort.
(pass1012)
The obstruction is embedding-specific, not group-theoretic: Aut(W(3,3)) ≅ PSp(4,3):2 ≅ W(E₆) does
act transitively on 240 things — it does so on the edges. What remains open is whether some other
conjugacy class of order-51,840 subgroups of W(E₈) acts transitively on the roots. That is a GAP
question, and it is the live form of the E₈ problem.
| Quantity | Symbolic derivation | Value | Status |
|---|---|---|---|
|Sp(4,3)| |
q⁴(q²−1)(q⁴−1), q=3 |
51,840 |
PROVED |
|W(E₆)| |
— | 51,840 |
PROVED |
| The real coincidence | |W(E₆)| = |Sp(4,3)| — E₆, not E₈ |
— | PROVED |
[W(E₈) : Sp(4,3)] |
696,729,600 / 51,840 |
13,440 |
PROVED |
dim e₈ |
|roots| + rank = 240 + 8 |
248 |
PROVED (textbook) |
| QR-CSS code | exact length-137 construction | [[137,1,21]] |
CERTIFIED |
2-rank of A |
#{invariant factors = 1} in SNF(A) |
16 |
CERTIFIED |
| E₈ shadow rank | #{invariant factors = 2} |
8 |
PROVED |
| Era | Passes | What happened |
|---|---|---|
| Genesis (2026-01) | Parts I–LXIV | Initial archive. Roman numerals. Ambition unbounded. |
| Physics sprint | PART_*, BT* |
Yukawas, CKM, neutrinos, RG running, E₆/E₇/E₈ bridges |
| The audit | 322–346 | Discovery that the rank law was already published (Sastry–Sin; Chandler–Sin–Xiang) and already in this corpus. ~19 passes wasted. Produced RESULTS_INDEX.md and the rediscovery guard. |
| Selection layer | 346 | Closed: chirality is hostable but not selectable from inside. Don't reopen. |
| Exact frontier | 479–541 | Flat block, trace valuations, all-exponent q=3 theorem, chain rings |
| Deformation arc | 641–830 | 2-adic tower, Ext quivers, the two-branch and k-branch gluing theorems, coalescence |
| Cross-track | 806–828 | Two agents' independent constructions unified by one Smith-form theorem |
| Audit again | 856–984 | Three external batches audited at intake; several headline claims refuted |
| Exceptional/modular closure | 1002–1391 | Ramified reconstruction; 432→81→216; Brauer/Cartan/PIM closure; selector orbital and frame-matching algebras |
| Cover-resolution atlas | 1408–1975 | Certified 327-orbit cover frontier, signature compression, decoders, arithmetic multiplicity order, and SL₃(Z) phase carrier |
| Spread and controller frontier | 1976–2206 | Regular-spread classification for every odd prime power, Ree–Tits control, exact outer-even Hom multiplicities, and the canonical order-24 controller |
| Complete spectra and representations | 2300–2307 | Complete q=27 named-family spectra/codes, all quadratic Hom bases, q=7/11 Weil inversion, controller trichotomy, and the induced quadratic-map S₃ character |
Two agents work this repository in parallel. Neither reads the other's filenames. That is a structural
cause of rediscovery, not a discipline problem — hence RESULTS_INDEX.md, the guards, and the pass-number
reservation protocol.
Everything below descends from the same 40 points. Tiers are the domain's overall standing, not any single claim's.
| Domain | What it contains | Tier |
|---|---|---|
| Finite geometry & groups | W(3,3), Sp(4,3), PSp(4,3), W(E_6), ovoids, spreads, generalized quadrangle combinatorics |
PROVED |
| Spectral & zeta | adjacency/Hashimoto/Ihara–Bass, Ramanujan property, closed-form zeta, non-backtracking dynamics | PROVED |
| Lattices & gluing | eigenlattices, E_8 shadow, Smith forms, critical groups, the k-branch/coalescence theorems |
PROVED / CERTIFIED |
| Deformation theory | flat block, 2-adic tower, Ext quivers, Kuranishi cones, conductors, Burnside orbit counts | PROVED / CERTIFIED |
| Codes & QEC | [[137,1,21]] QR-CSS, stabilizer cascades, syndrome structure, Clifford recovery protocol |
CERTIFIED |
| Representation theory | E_6/E_7/E_8 chains, 27/78/248, H_27 middle layers, Loewy structure, ATLAS matrices |
PROVED / CERTIFIED |
| Topology & homology | clique complex, H_1 = Z^81, Hodge-style force classification, cohomology of the selector |
PROVED / CONDITIONAL |
| Moonshine & modular | Niemeier/Leech material, McKay–Thompson series, Hecke operators, j-function arithmetic |
CONDITIONAL / much RETRACTED |
| Holonet (the machine) | GKP tower A_2 < D_4 < E_8, degree-2 symplectic + degree-3 E_6 cubic gates, routing, schedulers, contextuality tax |
CONDITIONAL |
| Photonics | dual-rail single-photon runtime, interference-phase predictions at 72.45°/127.09°, lab packets |
CONDITIONAL |
| Selector / tomotope | selector frames, braid registers, Reye/Q4 configurations, orientation quotients | CERTIFIED / CONDITIONAL |
| Physics program | masses, Yukawas, CKM/PMNS, α, neutrinos, cosmology, RG running |
CONDITIONAL / several RETRACTED |
| Tooling & audit | Thousands of witnesses and certificates, executable guards, RESULTS_INDEX.md, pass-reservation protocol, and batch-intake harness |
— |
This is the section that makes the rest trustworthy.
| Claim | What killed it | Pass |
|---|---|---|
Flat-block gluing = (Z/q)^{(q²−1)/2} |
Glued eigenlattice images (unsaturated) with a buggy hand-rolled Smith routine. Truth: (Z/2)^{(q−1)²/2}, pure 2-torsion. |
808 |
| "Deformation–Burnside bridge" | (q−1)²/2 ≠ (q²−1)/2 always. The rank match was the bug. |
808 |
Tower theorem for all n |
The modulus-qⁿ flat block fails its quadratic in every entry at (3,2) and (5,2). |
807 |
| Factorial trace law | Deviates below the law — opposite sign to the proposed mechanism. | 508 |
| CKM from Ihara phases | In experimental σ: θ₁₂ 28.8σ, θ₁₃ 62.9σ, λ_W 35.7σ. Reported as "11% agreement." Source file tried four θ₁₂ formulas and kept the closest. |
981 |
[W(E₈):Sp(4,3)] = 480 |
It's 13,440. |
981 |
5 orthogonal E₈ in Leech |
5×8 = 40 > 24 = rank(Leech). Dimensionally impossible. |
981 |
| A₅ splits 240 edges into 4×60 | 17 verified A₅ subgroups, all with profile (60,60,30,30,20,20,10,10). 240=4·60 satisfies orbit counting, but divisibility ≠ freeness. |
982 |
Ihara Φ₄(3)=10 = coalescence rank |
Held for W(3,3) and T(8) with the values correctly swapped — then died on T(12) (predicts 3, actual 11). |
983 |
The five failure modes this repo has actually produced, in increasing order of how hard they are to catch: coordinate artefacts · over-reads · unbuilt objects · unbuilt halves · rediscovery. The last one cannot be self-checked, because novelty is a property of the corpus, not of the claim. It can only be searched for.
| Claim | Why it was withdrawn | Pass |
|---|---|---|
| "The frame Cayley graph" | It is a Schreier graph on a coset space. Schreier graphs collide by construction; the misnomer made regularity feel obligatory and caused the next three entries. | 4203 |
| "The instruction layer can be Ramanujan" | The five-generator graph measured was the discrete torus C₃⁴; its only Clifford generator draws no edges at all, every one duplicating a translation edge. |
4201 → 4204 |
| "The instruction graph misses Ramanujan by 3.23%" | 2√(k−1)/k is a k-regular bound. This graph has degrees 2–8, so it has no claim on 0.866. The measurement (|λ₂| = 0.893992320) is exact and stands; only the grade was withdrawn. |
3042 → 4213 |
| "78 = dim E₆ identifies W(3,3)" | All 28 Spence graphs give the same 78 poles: it is 2(v−1), a property of the parameter set (40,12,2,4), not of this graph. |
4281 |
| "|Aut| singles out W(3,3)" | 51,840 is attained by two of the 28 — the point graph and the line graph of one GQ(3,3). | 4287 → 4296 |
"Add S_f to unfreeze the register" |
S_f moves x₃, not x₂ — the reasoning went from a coordinate's name to an opcode whose subscript matched. No pool opcode can unfreeze it, and a control improved mixing as much as either candidate. |
4244 → 4245 |
| "Every defect traces to the load port" | Localisation does; the arrow of time does not. One-way transitions rise as load ports are added, and the machine with none still has 216. Two independent asymmetries. | 4314 |
Each of these exists because the same mistake was made more than once, and each has been verified against a planted fault — a checker that has only ever reported clean has unknown recall.
| Check | Catches | Verified by |
|---|---|---|
check_tex_insert_pitfalls.py |
six LaTeX fault families across 287 inserts | test_checker_recall.py — 6/6 planted faults, silent on a clean file |
check_labels.py |
duplicate labels, dangling references | planted duplicate + planted dangling ref, both caught |
find_orphaned_inserts.py |
finished write-ups no manuscript includes | census went 114 → 0; CI baseline now 0 |
route_orphaned_inserts.py |
inserts routed away from the section they cite | planted cross-referencing pair, co-location confirmed |
check_site_is_current.py |
the CDN serving a stale page behind a green deploy | caught a 116 KB-behind artifact reporting status: built |
check_certificates.py |
certificates that cannot reproduce their own digest | a certificate unverifiable from birth |
Two lessons worth stating in the open, because both cost real time:
- Zero LaTeX errors is not zero undefined references. Both are now CI failures.
- Planted-fault recall measures the families you have, never the ones you lack. The pitfall checker reported a clean scan across all 287 inserts while two of them failed to compile, because the fault family did not yet exist.
The evidence tiers apply repository-wide. A certificate is
idempotent: rerun its producer with --check and it must reproduce
byte-identically, or it fails. CERTIFIED describes the named finite
computation only; it never upgrades an attached physical interpretation.
A whole-repository lake build in formal/ does not currently complete on the machine it was
measured on. There is no Lean badge in this README because nothing green has been demonstrated.
Verify a Lean-owned claim by building its named module alone:
cd formal && lake build W33.<TheModule>Open the historical build autopsy and repaired-module ledger
An earlier version of this section said "20 modules with real compile errors", then "19". Both were wrong by roughly a factor of three. The correction is recorded here rather than quietly edited away.
What happened: a whole-library build reported ~20 failures and they were taken at face value. Nearly
all were failed to read file …/Mathlib/….olean at line 1, column 0 — the import line — naming a
different mathlib file on each run. A genuinely corrupt artifact fails identically every time;
varying targets mean transient I/O, and the builds had been running concurrently. lake exe cache get reports the cache complete and the named files are present on disk.
Settled 2026-07-25 by building every suspect module one at a time, with nothing else running
(leanprover/lean4:v4.32.0-rc1, prebuilt mathlib):
.lean files under formal/W33/ |
40 |
imported by formal/W33.lean (so reachable by lake build) |
39 |
| all seven originally-broken modules | FIXED — Pass447, Pass491, Pass450, Pass565, Pass502, Pass488, Pass570 |
| newly revealed once they built | 1 — Pass575CyclotomicDVRKernel, which had never been compiled because it imports Pass570 |
| falsely accused by the contended build, and fine | 12 |
| never imported at all, so never type-checked by anything | 4 (now 3 imported, 1 left out — see below) |
Every one of the seven was mathlib drift, not bad mathematics. A renamed constant, a
tactic that moved, a missing noncomputable, or a lemma absorbed upstream. Two were instructive:
Pass491 was re-proving Matrix.det_conjTranspose, a @[simp] lemma mathlib already had; and
Pass488 resisted three tactic swaps because its ring A is only [Ring A] — possibly
noncommutative — so ring, ring_nf and linear_combination were never applicable. What
makes that theorem true is that algebraMap lands in the centre, which is now what the proof uses.
A caution the count itself teaches. Fixing the seven did not make lake build green: it
exposed Pass575CyclotomicDVRKernel, which imports Pass570 and had therefore never been
compiled at all. A failing module masks everything downstream of it, so any count taken from a
failing build is a lower bound. The honest statement is that seven are fixed and one is newly
visible.
Both fixed modules were mathlib drift, not bad mathematics, and that is the likely character of
the rest. Pass447 assumed a subst direction: in rintro v (rfl | rfl) the disjunct v = p
eliminates p, so later haves mentioning p fail with Unknown identifier p — establishing them
before the rintro fixes it. Pass491 was reinventing an upstream lemma: it hand-proved
(Mᴴ).det = star M.det via Matrix.det_transpose_eq_det_map, a constant that no longer exists,
while mathlib has had Matrix.det_conjTranspose as a @[simp] lemma with exactly that statement.
Deleting the proof in favour of the upstream name fixed it in 20 seconds.
To settle a module, build it alone — a whole-library build on this machine is not a reliable measurement:
cd formal && lake build W33.<TheModule> # exit 0, run with nothing else buildingPass828CoalescenceArithmetic is deliberately not imported: it cannot compile, because line 91 asks
Lean to synthesise Decidable (¬∃ k, gluing_order = k^2), an unbounded existential over ℕ. It is left
out with a comment rather than patched over or sorry-ed.
Why this was not visible. Not because CI lied — because two thirds of the Lean CI was aimed at nothing.
.github/workflows/lean-formal.ymltargetsformal/and does enforce: its "Enforce kernel success" step fails the job unlesslake build --wfailreturned 0, and a second job rejects anysorry/admit. It is correct, and it must have been failing. It only triggers onformal/**, and no badge surfaced it, so its redness sat where nobody looked..github/workflows/lean4.ymlandlean4-weekly-verify.ymlran withworking-directory: proofs/lean— a directory that does not exist in this repository. Both degraded to no-ops by design (lake build || echo "...continuing",|| true, and an explicit "skipping Lean build" branch). They have been deleted; a workflow that cannot verify anything is worse than no workflow, because it looks like one.
What this does and does not invalidate. It does not touch the GAP certificates or the pytest suite,
which are independent. It does mean a PROVED tier justified by "Lean" is only as good as the specific
module, so check it:
cd formal && lake build W33.<TheModule> # exit 0 means that module really is checkedModules verified to build at that measurement: Pass806TwoBranchGluing, Pass1006RamifiedFiltration,
Pass1018PencilRigidity, and the 18 other imported modules not on the broken list above.
Commands below use the Windows launcher; replace py -3 with python3 on
Unix-like systems.
# Schläfli–Steinberg object map, integral frame, and focused contract
gap -q analysis/w33_pass1147_schlaefli_steinberg_fourier_bridge.g
py -3 -m pytest -q tests/test_pass1147_gap_schlaefli_steinberg_fourier_bridge.py
# three-carrier triality, transport/Hecke Smith forms, independent reconstruction
py -3 analysis/w33_pass1325_1329_triality_integral_gauge.py
py -3 analysis/w33_pass1329_independent_checker.py
py -3 -m pytest -q tests/test_w33_pass1325_1329.py
# modular H26 radicals, central blocks, selected cycles, and AtlasRep carriers
py -3 analysis/w33_pass1330_1334_modular_triality_cycle_atlas.py
gap -q analysis/w33_pass1333_atlasrep_species20.g
py -3 -m pytest -q tests/test_w33_pass1330_1334.py
# cyclic-defect Brauer tree and the complete 23↔58 extension calculation
py -3 analysis/w33_pass1335_export_hecke_gap_input.py
gap -q analysis/w33_pass1335_brauer_tree_hecke_corner.g
py -3 -m pytest -q tests/test_w33_pass1335_brauer_tree_hecke_corner.py
# ramified p=2 reconstruction and coalescence theorem
py -3 analysis/w33_pass1002_ramified_kernel_growth_gluing.py --check
py -3 analysis/w33_pass828_coalescence_theorem.py --check
# all-odd-q spread theorem, q=27 nonregular control, and corrected controller
py -3 analysis/w33_pass2201_all_q_regular_spread_scheme.py --verify-frozen
py -3 analysis/w33_pass2203_ree_tits_nonregular_control.py --verify-frozen
py -3 -m pytest -q tests/test_w33_pass2200_2206.py
# controller representation trichotomy (GAP is the owning computation)
gap -q analysis/w33_pass2306_controller_representation_trichotomy.g
py -3 -m pytest -q tests/test_w33_pass2306_controller_representation_trichotomy.py
# current complete spectra, Hom bases, Weil inversion, and S3 character layer
py -3 analysis/w33_pass2300_ree_tits_divisible_code.py --verify-frozen
py -3 analysis/w33_pass2301_complete_quadratic_hom_bases.py --verify-frozen
py -3 analysis/w33_pass2302_q7_q11_weil_outer_inversion.py --verify-frozen
py -3 analysis/w33_pass2304_known_q27_spread_spectra.py --verify-frozen
gap -q analysis/w33_pass2307_quadratic_hom_s3_decomposition.g
py -3 -m pytest -q tests/test_w33_pass2307_quadratic_hom_s3_decomposition.py
# chamber matrix units, HoloBox family checksum, and ten-trit affine controller
gap -q analysis/w33_pass4936_chamber_packet_matrix_units.g
py -3 -m pytest -q tests/test_w33_pass4936_chamber_packet_matrix_units.py
gap -q -b analysis/w33_pass4937_adjoint_dual_number_controller.g
py -3 -m pytest -q tests/test_w33_pass4937_adjoint_dual_number_controller.py
# q=5 cover -> Reye/Latin/F4, intrinsic zero shell, and the exhaustive 7-side join
gap -q analysis/w33_pass5667_5674_q5_reye_equivariant_orientation.g
py -3 -m pytest -q tests/test_w33_pass5667_5674_q5_reye_equivariant_orientation.py
# corpus and claim guards
py -3 analysis/build_results_index.py
py -3 scripts/next_free_pass.py --report # claim a pass number safely
py -3 scripts/check_rediscovery.py <files> # is this result already ours?
py -3 scripts/check_sigma_gate.py <files> # percent vs experimental sigma
py -3 scripts/check_remotes_sync.py # have the two remotes diverged?
py -3 scripts/check_mechanism_claims.py <json>
# Lean (mathlib required)
cd formal && lake env lean W33/Pass806TwoBranchGluing.lean
# the papers
tectonic -X compile w33_paper.tex --outdir <dir>A self-contained, independently checkable bundle for the Clifford recovery protocol — the one artifact to reach for if you want to verify a single complete result end to end rather than navigate the atlas.
| Artifact | Path |
|---|---|
| Landing page and how-to | docs/recovery_packet_landing.md |
| Packet index | data/bt1279_recovery_packet_index.json |
| Strict polar-path certificate | data/bt1275_strict_polar_path_recovery_certificate.json |
py -3 tools/bt1291_verify_release_packet.py # verifies the whole packet| Path | Contents |
|---|---|
analysis/ |
Executable Python and GAP witnesses (w33_passNNN_*) |
data/ |
Deterministic JSON certificates; many are intentionally gitignored unless promoted |
tests/ |
Focused pytest contracts tying prose, witnesses, and certificates together |
scripts/ |
Corpus, rediscovery, namespace, sigma, and mechanism guards |
formal/ |
Lean 4 + mathlib; build named modules individually |
papers/ |
Specialist manuscripts; the master source is w33_paper.tex at the root |
docs/ |
The live atlas, PDFs, demonstrators, and reader-facing artifacts |
PASS_*, BREAKTHROUGH_*, PART_* |
Synthesis and historical release documents; use the result index to find the owner |
MIT. Every promoted claim must name a proof or witness path; executable packets also carry deterministic certificates, and current release notes publish their SHA-256 digests. If you find an error, the correct response is a retraction pass with a certificate — that is how the entries in Things we got wrong got there, and several of them were found by the authors auditing their own work.
"A claim you have not searched the corpus for is not new." — CLAUDE.md