The displayed three-variable map has determinant -2. |
VERIFIED_EXACT_COMPUTATION |
Polynomial ring Q[x,y,z]; displayed coefficients exactly as announced. |
results/sympy_verification.json |
results/independent_verification.json uses a separate sparse implementation. |
Public formula recorded by Zhang, 2026. |
None for the identity; publication review is separate. |
The three displayed rational points share image (-1/4,0,0). |
VERIFIED_EXACT_COMPUTATION |
Exact rational arithmetic. |
Both verification JSON files. |
Two implementations. |
Public formula recorded by Zhang, 2026. |
None for the evaluations. |
| The map is a counterexample in dimension three. |
REPRODUCED_KNOWN_RESULT |
Over C; constant nonzero determinant plus two distinct points with one image rules out injectivity. |
Exact determinant and collision certificates. |
Both implementations plus elementary implication. |
Public announcement, 2026; no journal review asserted. |
Provenance and literature priority remain external questions. |
| The plane case remains open as of 2026-07-23. |
SOURCE_REQUIRED |
Characteristic zero, dimension two. |
Multiple current expository/preprint pages say so. |
Not a mathematical computation. |
Current source matrix. |
A status claim cannot be exhaustively proved by search. |
Below maximum degree 125, (72,108) and its symmetric pair are the only survivors claimed by the 2022 paper. |
SOURCE_REQUIRED |
Plane Jacobian counterexample; exact normalizations and base-field hypotheses must be extracted from the paper. |
arXiv:2204.14178 abstract and HTML introduction. |
None yet. |
Guccione et al., preprint v1 (2022). |
Read proof and dependency papers; check journal status. |
No z=k slice plus coordinate projection yields a constant-Jacobian map. |
VERIFIED_THEOREM |
Any k in a characteristic-zero field; output pair among (A,B),(A,C),(B,C). |
Nonconstant coefficients -89 y^3, -16 y, -42xy. |
Direct symbolic expressions saved in descent JSON. |
This repository. |
Does not cover non-coordinate projections or conjugacy. |
Solving C=0 cannot yield a plane Keller counterexample while preserving the displayed collision. |
VERIFIED_THEOREM |
Reduced affine varieties over C; use the two irreducible components of C=0. |
Proof in notes/descent_attempts.md; exact restricted maps. |
SymPy certificate plus coordinate-ring proof. |
This repository. |
Does not cover levels of other components or conjugacy. |
| The unique affine plane through the three collision points fails after every coordinate projection. |
VERIFIED_EXACT_COMPUTATION |
Plane 3x+2y=0; coordinate output pairs only. |
Three exact nonconstant minors in descent JSON. |
Collision reevaluated exactly. |
This repository. |
General two-output polynomial combinations untested. |
| A two-variable analogue of the same weighted quotient mechanism is impossible. |
CONJECTURAL |
Must first define the admissible family and support bounds. |
Research hypothesis H1. |
None. |
This repository. |
Formulate and run finite classification. |
Every hyperbolically G_m-equivariant plane Keller map in characteristic zero is linear after diagonalizing the actions. |
REPRODUCED_KNOWN_RESULT |
Standard diagonal action with coprime weights (a,-b); arbitrary actions over C additionally use linearization. |
Complete leading-coefficient proof in notes/equivariant_no_go_theorem.md. |
SymPy symbolic families and independent sparse exact verifier. |
Shaska, arXiv:2607.20210v1, Theorem 3.3. |
None for the diagonal hyperbolic theorem; broader novelty is not claimed. |
On an orbit-parameter cover, an equivariant map satisfies det(DG)=±mu^sum(w) det(DH). |
VERIFIED_THEOREM |
Integer weights; source/target weight multisets agree; matched nonzero orbit weight; rational orbit chart. |
Chain-rule proof in notes/quotient_jacobian_weight_formula.md. |
Generic exact coordinate-change checks plus the independent sparse announced-map certificate. |
Derived after Shaska Remark 6.2; no exact prior source located. |
Priority review and intrinsic stack formulation remain. |
| The exponent two in the announced map's quotient Jacobian equals minus the total source weight. |
VERIFIED_EXACT_COMPUTATION |
Weights (1,-1,-2), orbit multiplier L=C/x=2-3u-v, invariants (BC,AC^2). |
Jac(BC,AC^2)=2L^2; total weight -2. |
SymPy and independent sparse arithmetic. |
Shaska Theorem 6.1 proves the example-specific relation; this repository supplies the weight explanation. |
Coarse-quotient generalization for non-unit orbit weights. |
| On a regular polynomial quotient chart, the sign of total weight gives a three-way constraint on the orbit multiplier and quotient Jacobian. |
VERIFIED_THEOREM |
Algebraically closed characteristic-zero field; H and mu regular polynomial; ambient map Keller. |
Immediate divisibility corollary of the quotient-weight formula. |
Symbolic cases cover negative, zero, and positive total weight. |
This repository; priority unassessed. |
The conclusion is chamber-dependent and not yet globalized. |
Weighted source/output conjugation satisfies J(P_tau,Q_tau)=tau^(a+b-c-d)J(P,Q)(tau^a x,tau^b y). |
VERIFIED_THEOREM |
Polynomial pair; integer weights; Laurent family allowed. |
Chain-rule proof and weighted_conjugation.py. |
Standalone verifier reconstructs the displayed families without primary-module imports. |
Heitmann Lemma 1.1 gives the equivalent valuation inequality; formula derived here. |
None. |
| A lowest positive-weight special pair of a normalized plane Keller map is either an automorphic Keller pair or algebraically dependent and non-dominant. |
VERIFIED_THEOREM |
Infinite characteristic-zero field; F(0)=0; strictly positive source weights; both lowest components nonzero. |
Weight-layer proof in candidate_reduction_theorems.md; exact classifiers. |
Independent verifier checks strict/equality cases; layer identities tested separately. |
Heitmann 1990 supports the equality criterion; Shaska 2026 supports positive equivariant invertibility. |
Higher layers are not retained. |
If a highest positive-weight face has p+q=a+b, the full plane Keller map is triangular/affine; otherwise its leading pair is dependent and non-dominant. |
VERIFIED_THEOREM |
Infinite characteristic-zero field; target translated so F(0)=0; positive weights. |
Complete proof in candidate_reduction_theorems.md; exact classifier. |
Independent examples and bounded support scan; proof is unbounded and does not rely on the scan. |
Heitmann 1990, Lemmas 1.1-1.2. |
Priority of the exact triangular formulation is SOURCE_REQUIRED. |
| Ordinary positive-weight degeneration preserves a noninvertible dominant Keller obstruction. |
DISPROVED_LEMMA |
Naive one-weight lowest or highest Rees special fiber. |
General dichotomy plus pole/dependence examples. |
Primary and independent JSON certificates. |
This repository; consistent with graded no-go theorems. |
Flagged, multi-valuation, or parameter-dependent reductions remain open. |
| The two initial generators automatically define the full associated-graded Keller map. |
DISPROVED_LEMMA |
Arbitrary filtration/Rees flatness without a strict/SAGBI assumption. |
P=x+y^2,Q=y: initials generate k[y], while the full graded ring is k[x,y]; P-Q^2=x. |
Rees torsion/saturation certificate and independent bracket reconstruction. |
Anderson 2013 requires compatible filtrations to induce Rees maps. |
The full filtered object is not a two-coordinate plane special map. |
A single dicritical divisor canonically produces a hyperbolic A^2 Keller model. |
DISPROVED_LEMMA |
Smooth surface and one divisorial valuation; canonical normal-cone construction. |
Canonical-shift bracket and normal-bundle category obstruction. |
Direct local wedge calculation; line-at-infinity normal bundle gives an explicit check. |
Nguyen 1999 supplies an equality-layer Wronskian on a distinct separative series, not at the dicritical endpoint and not as an A^2 map. |
A coupled dicritical/separative construction remains open. |
In a fixed affine regular family with dominant generic and special plane maps, function-field degree satisfies d_0 <= d_eta. |
VERIFIED_THEOREM |
Infinite characteristic-zero field; P,Q in k[t,x,y]; both fibers dominant. |
Primitive-element specialization proof in noninvertibility_preservation.md. |
Exact strict examples 2 -> 1; finite-locally-free equality boundary checked independently. |
Literature priority SOURCE_REQUIRED. |
Not applicable to non-dominant special fibers, varying models, or inseparable characteristic. |
Flat ambient source, target, and graph plus strict J=1 preserve noninjectivity in a Keller family. |
DISPROVED_LEMMA |
Polynomial family; no properness/finite-locally-free hypothesis on graph-to-target projection. |
Normalized verified 3D map has noninjective generic fibers and a linear automorphic special fiber, determinant one throughout. |
Primary modular and standalone exact computations. |
This repository. |
Dimension three; a plane-specific preservation theorem is not ruled out. |
A divisorial valuation carries a shifted residue bracket v({f,g}) >= v(f)+v(g)-kappa_E. |
VERIFIED_THEOREM |
Smooth surface, prime divisor, rational functions, local normal/tangent parameters. |
Direct expansion of df wedge dg in infinity_valuation_model.md. |
Origin and line-at-infinity specializations reproduce both Rees exponents. |
Lê-Weber 1994 and Nguyen 1999 give related infinity formulas. |
Global finite generation and boundary preservation are separate. |
Nguyen's nonzero Delta_phi=2 Wronskian occurs at a genuine dicritical endpoint. |
DISPROVED_LEMMA |
Nguyen's 1999 definitions and the 2004 associated sequence over C. |
Dicritical endpoint has a_phi=b_phi=0; all positive ancestors have common roots, J_i=0, and strict Delta_i>2. |
Direct symbolic equality/strict controls in both flagged verifiers. |
Nguyen 1999, Def. 3.4, Thm. 3.6, Main Lemma 3.3; Nguyen 2004, Lemma 3 and proof of Thm. 1. |
A new coupled dicritical plus separative filtration would be required. |
| A divisor-point flag defines a rank-two lexicographic valuation. |
VERIFIED_THEOREM |
Smooth surface, prime divisor E, closed smooth point p in E, rational functions; residue valuation on k(E). |
Composite-valuation proof in rank_two_flag_valuations.md. |
Exact monomial chart verifies multiplicativity and ultrametric inequality. |
Standard composite valuation construction; project-specific formulation. |
Choice of (E,p) is not canonical and does not encode a disjoint second branch. |
The full Z^2_lex flag-Rees algebra is Noetherian whenever the flag associated graded is finitely generated. |
DISPROVED_LEMMA |
Increasing full-cone filtration with constants in every nonnegative piece. |
Evaluation quotient onto C[Gamma_+]; (1,-N) proves the positive cone is not finitely generated. |
Proof certificate and independent witness reconstruction. |
This repository; literature priority SOURCE_REQUIRED. |
An affine-submonoid replacement is a different degeneration requiring new proofs. |
| The natural independently labelled two-pole construction is a two-dimensional normal affine domain retaining both labels. |
DISPROVED_LEMMA |
Two points 0,infinity on P1; full two-budget multisection or corner associated graded. |
Full ring C[A,B,C,D]/(AC-BD) has dimension 3; diagonal cone loses labels; corner C[W,L,R]/(LR) is reducible. |
Hilbert-basis decompositions and presentations independently checked. |
This repository. |
Does not quantify over every noncanonical coupled construction. |
| Nguyen's equality Wronskian is an ordinary or global logarithmic Jacobian unit on a graded surface. |
DISPROVED_LEMMA |
Laurent boundary chart with P=t^-a p(xi)+..., Q=t^-b q(xi)+.... |
Exact wedge calculation and parameter law; log coefficient is J_phi/(pq). |
Primary and independent symbolic verifiers. |
Nguyen 1999 supplies the coefficient identity. |
It is naturally a residue/twisted-canonical coefficient; extra trivialization would be new. |
| Relative Cartier plus finite-locally-free marked boundary data preserves the marked nonproper target curve in every fiber. |
VERIFIED_THEOREM |
Fiber-compatible relative graph closure; geometrically irreducible relative Cartier D; flat integral affine C; D->C finite locally free of rank d>0. |
Base change preserves Cartier property and finite locally free positive rank; Jelonek identifies graph-boundary image with nonproper values. |
The family (x^2y+t^2x,y) gives an exact rank-one chart control. |
Jelonek 1993 Prop. 14; standard base-change facts recorded in source matrix. |
These strong hypotheses are not derived from a Keller flag-Rees construction. |
| A dominant hyperbolically equivariant boundary-preserving surface map with log-Jacobian unit must be an automorphism. |
DISPROVED_LEMMA |
Even X=A2, coordinate boundary, characteristic zero. |
(x^2y,y) has log determinant 2, generic degree 2, contracts y=0, and is nonautomorphic. |
Ordinary and log determinants independently reconstructed. |
Toric/log interpretation checked against Kato 1989. |
Ordinary Jacobian unit, or exact characteristic map plus torsion-free cokernel, is substantially stronger. |
| The exact fixed-presentation two-pole Keller class is excluded. |
INCOMPLETE_ARGUMENT |
#Pol(F,P)=2 for a fixed ordered coordinate pair. |
Nguyen's audited theorems do not give this exclusion; finite-support controls are narrower. |
Referee checklist rejects promotion. |
Nguyen 1999/2004. |
No minimal infinity class is newly excluded in this cycle. |
| A full-rank map between pointed saturated rank-two affine cone monoids is exact exactly when the inverse target cone equals the source cone. |
VERIFIED_THEOREM |
Q=sigma_Q cap L_Q, P=sigma_P cap L_P; rational pointed full-dimensional cones; injective full-rank lattice map carrying source cone into target cone. |
Rational-cone lattice-point proof in notes/breakthrough_program/characteristic_monoid_exactness.md. |
Smooth enumeration plus a singular-cone reconstruction in both breakthrough certificates. |
This repository. |
Does not derive exactness for the characteristic map of every Keller compactification. |
| Exactness of the characteristic monoid map forces torsion-free group cokernel. |
DISPROVED_LEMMA |
Even saturated pointed rank-two monoids and both marked extremal rays. |
diag(m,1) and the singular-cone index-two control are exact with nonzero torsion. |
Smith invariants independently reconstructed. |
This repository. |
A Keller-derived primitive lattice condition would be additional data. |
| Equality of selected ordinary rational two-forms plus a boundary-dominant component forces characteristic lattice index one. |
DISPROVED_LEMMA |
Normal finite-type two-dimensional model; one marked divisor dominates a target curve. |
x=AB,y=AB^2, (U,V)=(A^2B^2,B/2) has form equality and index two. |
Standalone symbolic wedge and determinant reconstruction. |
This repository. |
Not an actual nonautomorphic polynomial Keller map; missing invariant is boundary primitivity of the affine volume form. |
Ordinary and logarithmic ramification satisfy R_H=R_H^log+H^*B_Y-B_X. |
VERIFIED_THEOREM |
Dominant generically finite smooth surface germs with reduced normal-crossing boundaries; coefficientwise at normal generic boundary points. |
Canonical divisor subtraction and monomial formula in ordinary_boundary_ramification.md. |
Independent chart Jacobians. |
Standard canonical/log divisor identities, specialized here. |
Conductor corrections remain if one works away from normal generic points. |
| At a dicritical generic point over an affine target curve, transverse Kummer index equals canonical shift and ordinary ramification plus one. |
REPRODUCED_KNOWN_RESULT |
Actual Keller graph chart; source divisor maps dominantly and generically finitely to a smooth affine target curve; normal smooth generic points; characteristic zero. |
Local parameters give H^*t=u^e unit, hence ord H^*(dt wedge ds)=e-1; compare with dx wedge dy. |
Standalone controls reconstruct indices 1 through 6. |
Borisov, J. Algebraic Combinatorics 39 (2014), plus this repository's local proof. |
Does not determine the index without determinant-label information. |
| An affine-dominating dicritical divisor in a hypothetical nonproper Keller resolution has canonical/Kummer index at least two and positive ordinary ramification. |
REPRODUCED_KNOWN_RESULT |
Resolved complex plane Keller map; boundary curve maps to a curve in A^2; Borisov augmented-canonical and determinant labels. |
Such curves have negative determinant label; label-one valuations have nonnegative determinant label; positive label equals ramification index. |
Source proof and local identity cross-checked; no generator dependence. |
Borisov, J. Algebraic Combinatorics 39 (2014), pp.691-710. |
Does not bound indices above two or exclude a counterexample; shows zero ramification would already be globally contradictory. |
J(P,Q)=1 forces zero ordinary ramification on every compactified boundary chart. |
DISPROVED_LEMMA |
Arbitrary compatible compactification, without a crepant/primitivity condition. |
The polynomial automorphism (x,y+x^m) has chart (U,W)=(u,u^m/(v+1)) and ramification order m. |
Standalone affine and chart Jacobian calculation. |
This repository. |
Does not refute a stronger theorem retaining a nonproper divisor under unavoidable relative hypotheses. |
In an irreducible generic exactly-two-pole Keller fiber, finite-valued boundary ramification has total n+2g. |
VERIFIED_THEOREM |
Ordered pair (P,Q); smooth irreducible generic P-fiber; compact restriction degree n, genus g; exactly two distinct poles. |
Hamiltonian vector field gives no affine ramification; Riemann-Hurwitz proof in exactly_two_pole_class.md. |
Independent exact totals and z+1/z positive control. |
This repository; classical Riemann-Hurwitz. |
Does not exclude embedded plane realizations; generic-fiber irreducibility is explicit. |
In the transverse nonvertical dicritical charts of an irreducible exactly-two-pole fiber, sum_p(kappa_D(p)-1)=n+2g. |
VERIFIED_THEOREM |
Same two-pole assumptions; generic vertical target line transverse to smooth nonproper-curve loci; smooth normal source generic points. |
Combine the local dicritical Kummer-canonical identity with the two-pole Riemann-Hurwitz theorem. |
Canonical-shift profiles independently reconstructed as ramification deficits plus one. |
This repository. |
Repeated punctures may lie on one dicritical class, so the equality does not prove independent marks. |
| The irreducible coordinate-fixed exactly-two-pole class has at least four distinct punctures. |
VERIFIED_THEOREM |
Same assumptions as the two-pole ramification theorem. |
Two pole points plus at least two finite ramified punctures. |
Exact partition enumeration. |
This repository. |
Presentation-dependent; does not prove the global independent-mark gate. |
| Every hypothetical nonautomorphic Keller map has at least three coordinate-independent coupled infinity marks. |
INCOMPLETE_ARGUMENT |
A coordinate-invariant equivalence relation on dicritical, separative, polar, and puncture data is required. |
The one-separative/two-polar plus one-dicritical pattern survives current constraints. |
Referee report rejects counting descendants twice. |
Nguyen 1999/2004 plus this repository. |
Must separate the forced finite ramification points into independent dicritical classes or minimize over target presentations. |
The surviving sub-125 degree case is the (8,28), (3,2) family giving degree pair (72,108), while the (9,27) degree-108 family is excluded. |
REPRODUCED_KNOWN_RESULT |
Standard-pair and Laurent conventions inherited by the Guccione papers over characteristic zero. |
Full PDFs; algorithms tables pp.27-28; 2022 Proposition 4.3 and Corollary 5.7 visually checked. |
Repository table exactly reconstructs the ten cases and unique survivor. |
Guccione et al., arXiv:1708.07936v1 and arXiv:2204.14178v1. |
Full independent reconstruction of every inherited exclusion is not complete. |
The vertex-only approximate-root skeleton inside the surviving (8,28) polygons is impossible. |
VERIFIED_EXACT_COMPUTATION |
Exact displayed four-parameter ansatz; transformed equation [P,Q]=x^2; omitted edge/interior coefficients fixed to zero. |
Seventeen coefficient equations have Groebner basis (1). |
Standalone verifier rebuilds the ideal. |
This repository. |
Not exhaustive for either full Newton polygon; no Breakthrough Gate follows. |
The full surviving (8,28) Newton configuration is excluded. |
INCOMPLETE_ARGUMENT |
Every lattice coefficient in both Proposition 4.3 polygons and all allowed normalizations. |
Only a vertex-only subansatz is excluded. |
Adversarial review rejects exhaustiveness. |
Guccione et al. 2022 and this repository. |
Complete approximate-root recursion and finite elimination remain. |
The coordinate-optimized generic-fiber branch mark count satisfies N_branch(F)>=3 for every nonautomorphic plane Keller map. |
REPRODUCED_KNOWN_RESULT |
N_branch minimizes the number of branches at infinity of a generic component fiber over all target polynomial automorphisms and both components; complex plane; source/target automorphism invariance. |
Druzkowski's 1991 two-branch theorem applied to a minimizing presentation; source changes identify normalizations and target changes reindex the minimum. |
Original p.99 theorem/proof visually checked. |
Druzkowski, Ann. Polon. Math. 55 (1991), 95-101. |
Does not imply three dicritical divisors, poles, or separative chains; known result, not an original gate. |
Each complete (8,28) P-coefficient space contains a nonempty Zariski-open locus on which no allowed Q solves [P,Q]=x^2. |
VERIFIED_THEOREM |
All 61/125 lattice points in the polygon with vertical left edges and all 25/47 points without; arbitrary characteristic zero after the integral certificate. |
Explicit maximal augmented minors specialize nonzero modulo 2147483629; ranks are 124/125 and 46/47. |
Standalone reconstruction uses different coefficients and prime 2147483587. |
This repository; priority overlaps Santibanez-Leal Zenodo v0.07 / CAOS_RESEARCH sampled-minor program. |
All survivors lie on determinantal exceptional hypersurfaces; those closed loci are not excluded. |
The live Santibanez-Leal (72,108) program has completely excluded both Proposition 4.3 polygons. |
DISPROVED_LEMMA |
Public Zenodo v0.07 and CAOS_RESEARCH main at audited commit. |
Its own scope statements keep the floor raise gated on a simultaneous-all-coefficients certificate; degree three is open through triple supports. |
Repository verdict audit includes the EXP-070 arithmetic-bug retraction and corrected EXP-071/072 record. |
DOI 10.5281/zenodo.21503368 and commit b8237a8e980830173defacb9923016717f3f66f8. |
A later repository version may change; re-audit before relying on current status. |
| The full smaller Proposition 4.3 system is equivalent to five univariate Belyi-lift equations. |
VERIFIED_THEOREM |
Complete 25/47 lattice supports; Laurent change z=xy^2,t=1/y; characteristic zero. |
Direct chain rule and exact comparison of every t coefficient; no coefficient specialization. |
Standalone verifier reconstructs both transformed polygons; tests re-expand the symbolic Jacobian. |
This repository. |
The reduction is lossless; the companion degree-35 lift certificate now proves the five-equation system inconsistent with the required G_12 vertex. |
| The bottom edge of the smaller polygon is impossible by passport or monodromy. |
DISPROVED_LEMMA |
Forced degrees A=z*a, D=z^2*d, deg(a,d)=(7,10), nonzero vertices. |
R=D^2/A^3 has passport (2^10,1),(3^7),(17,1^4); an exact transitive genus-zero permutation triple exists. |
Independent reconstruction gives product one, the three cycle types, transitivity, genus zero, and group order 21!/2. |
Riemann-existence correspondence as stated in Manes-Melamed-Tobin, arXiv:1908.10459; finite witness from this repository. |
Edge realizability does not imply that any realization lifts through the other four equations. |
| The degree-21 edge passport has exactly five dessin isomorphism classes. |
VERIFIED_EXACT_COMPUTATION |
Labeled branch values; cycle types (2^10,1),(3^7),(17,1^4); connected genus-zero covers. |
Four face monogons reduce the dessin to one of two trees with degree sequence (3,3,2,1,1,1,1); all 2^7 ribbon orders per tree give orbit counts 4+1. |
Standalone enumeration reverses the simultaneous-conjugacy canonical traversal and returns the same five classes. |
This repository; Riemann-existence bridge from Manes-Melamed-Tobin, arXiv:1908.10459. |
No matching published enumeration was found in exact-coordinate/passport searches. |
The smaller Proposition 4.3 Newton pair admits no solution of [P,Q]=x^2. |
MAJOR_BREAKTHROUGH |
Algebraically closed characteristic-zero field; exact 25/47 Newton polygons conv{(0,0),(1,0),(8,14),(8,16)} and conv{(0,0),(2,1),(12,21),(12,24)}. |
Exact edge recurrence gives seven tail equations; exact modular-reconstruction/FGLM yields one reduced degree-35 edge field. Layer ranks are 17/19, 18/20, and 12/12; third-layer compatibility has minor gcd 1, forcing B=E=0, then G'=0, contradicting G_12!=0. |
Independent Sage verifier changes column order and both kernel bases and obtains Groebner basis (1) for the direct compatibility ideal in K[q,r,s]; deleting G_12 gives an exact positive control. |
This repository; source configuration is Guccione et al., arXiv:2204.14178v1, Proposition 4.3(2). |
This theorem is frozen separately; the larger configuration is now excluded by the logical branch theorem below. |
| The larger Proposition 4.3 Laurent system has exactly 61/125 slots, 302 nontrivial coefficient equations, and first normalized top/right obstruction at layer 5. |
VERIFIED_THEOREM |
Exact larger polygons; algebraically closed characteristic-zero base; normalized degree-35 top edge. |
Unimodular Laurent support enumeration, independent full symbolic bracket expansion, and exact cokernel projection retaining all five early kernel parameters. |
Tests independently compare sparse and symbolic rows; frozen lex hash and all rank tables are checked. |
This repository. |
This is a finite reduction milestone, not a polygon exclusion. |
| The coefficient-zero chart of the first larger-polygon layer-5 obstruction is empty. |
VERIFIED_THEOREM |
Chart c(x1)=0 of f=c(x1)x5+b; exact degree-35 field K; compatibility through top layers 5--7. |
Five low-degree compatibility generators have an explicit 72,672,850-byte Bezout identity sum(q_i*f_i)=1 over K (SHA-256 481efe2c...f7fe8), not just a basis (1). |
A primary parser rebinds every hash and expands the serialized identity; a second constructor descends through the mu_7 action to a degree-five subfield, runs liftstd, lifts back, and exactly reproduces the same multipliers. The existing reversed-variable lex verifier independently gives basis (1). |
This repository. |
None for this chart; the principal c!=0 chart and global chart cover remain separate gates. |
The principal c(x1)!=0 chart is excluded by layer 7. |
VERIFIED_THEOREM |
Corrected six-generator row split on the principal chart over the reduced degree-five field. |
The exact identity b2*p0-a2*r7=D*Y+E gives the exhaustive split D!=0 versus D=0,E=0. In D!=0, the a2=0 and degree-one strata have gcd one; on the degree-18 stratum a linear L divides D,E, L^2 divides Q0,P1, and a fixed residual (5,6) Sylvester determinant is nonzero. In D=E=0, Res_X(D,E) is squarefree with factors (1,18); the linear factor has no D,E root and the degree-18 factor has a nonzero fraction-free value of Res_Y(p0,p1). |
A source-chain verifier rebuilds the degree-five descent, quotient matrix, right inverse, and all six row-split generators from the original degree-35 principal system. Independent residue-field paths reproduce the degree-18 Sylvester nonvanishing and both D=E=0 factor witnesses. |
This repository. |
No unknown multiplier degree or prime enumeration is used. The historical 2,900-column CRT reconstruction is not part of this proof. |
| The full larger Proposition 4.3 Newton configuration is excluded. |
MAJOR_BREAKTHROUGH |
Algebraically closed characteristic-zero field; exact 61/125 transformed supports; every forced Newton vertex nonzero, with arbitrary interior coefficients. |
The top/right layer scheme is a necessary superset of the complete coefficient scheme. Its exhaustive charts V(c) and D(c) are empty respectively by an explicit characteristic-zero Bezout identity and the finite logical branch theorem above. |
large_polygon_logical_coverage_audit.json binds the lossless support count, degree-35 edge field, layer ranks, both chart certificates, source chain, terminal nonvanishing witnesses, and omitted-equation logical direction. |
This repository; source configuration is Guccione et al., arXiv:2204.14178v1, Proposition 4.3. |
This excludes one Newton configuration, not all larger polygons and not the plane Jacobian conjecture. |
| Every hypothetical characteristic-zero plane Jacobian counterexample has maximum degree at least 125. |
VERIFIED_THEOREM |
The two exact Proposition 4.3 exclusions plus the pinned published finite-case reduction and exchange/base-change audits. |
The 2022 Theorem 2.1 leaves only the (72,108) family below 125; Proposition 4.3 gives exactly the two now-excluded Newton configurations. |
global_degree_bound_125_audit.json binds both frozen configuration certificates, source archive hashes, literature audit, symmetry, and ground-field reduction. |
Guccione et al. 2013/2014/2017/2022 plus this repository. |
Dependency-bearing corollary; it does not exclude degree 125 or larger and does not prove the Jacobian conjecture. |