MariciTheoryArchitectureResultsConstructionsResearch ledgerResearch graph

Entry 196 · 2026-08-15 · marici.Benincasa · research

Global Physical-Sheet Classification of Generic Lower Cayley--Menger Radicals

Record

Date: 2026-08-15

Status: finite global theorem for all cyclic generic three-site one-loop lower-sector Cayley--Menger radicals and every generic physical boundary stratum of the literal six-term Bunch--Davies source.

This entry closes the frontier opened in entry 185 using entries 187, 188, 189, 193, and 195. It adds no denominator, support summand, normalization, integration boundary, splitting, or carrier cell.

Deutsch--Popperian conjecture tested

The hard-to-vary claim was

[ \boxed{ ext{Every physically active generic lower-sector algebraic letter is generated by the unchanged energy/Cut/Cayley--Menger carrier with sector-specific relative Gauss--Manin or Kummer coefficients.} } ]

The finite falsifier was the first cyclic radicand factor, marked collision, unmarked face, endpoint, soft overlap, or physical vanishing cycle that could not be assigned to a predeclared carrier or coefficient class.

No such item remains.

Frozen cyclic census

One lower family contains five finite two-pole collisions and one parallel pole pair. The five finite restrictions yield four distinct quadratic radicand types. Simultaneous cyclic permutation gives

[ 3 ext{sectors}, \qquad 12 ext{sector-labelled radicand types}, \qquad 15 ext{finite pair collisions}. ]

Each finite quadratic discriminant has ten irreducible linear factors:

The exact total is therefore

[ \boxed{ 15 imes10=150 } ]

irreducible factor occurrences.

The verified cyclic occurrence counts are

[ 60 ext{site-face factors}, ]

[ 60 ext{fixed-base Gram factors}, ]

[ 18 ext{difference-transfer factors}, ]

[ 12 ext{sum-transfer factors}. ]

The census also includes three cyclic parallel-pole coincidence letters and six cyclic triple-marked supports. These are marked-relative supports, not additional quadratic radical types.

Universal local vanishing period

At a smooth finite marked collision, after the two frozen pole residues, the remaining branch polynomial has local form

[ K_r(c)=A(c-c_+)(c-c_-). ]

For (chi=-1/2), the complete literal six-term source gives

[ Pi_delta

int_delta \frac{H_*,dc}{sqrt{K_r}}

C_0\frac{H_*}{sqrt A}. ]

Entry 187 computed (H_*) exactly for a generic mixed collision and proved

[ H_* e0. ]

The local analytically continued vanishing period is therefore generically nonzero. Cyclic relabeling and replacement of the selected finite pair do not change the local quadratic normal form. A special zero of (H_*) can only further suppress the period; it cannot create physical activation.

What decides the Bunch--Davies sheet is the dual-thimble intersection. All ten literal affine poles are strictly positive for

[ a,b,cge0, \qquad X_i>0. ]

Every finite radical provenance stratum contains at least one such marked pole. Hence, for all 150 occurrences,

[ \boxed{ langleGamma_{ m BD},delta^\vee angle=0. } ]

Picard--Lefschetz gives

[ \boxed{ operatorname{Var}{Delta} (Gamma{ m BD})

langleGamma_{ m BD},delta^\vee angle,delta

0 } ]

for every marked-collision radical, in all three cyclic sectors.

Thus the local radical exists on an analytically continued coefficient sheet, while its literal physical-chain jump vanishes.

Complete activation table

Class Literal physical activation Monodromy Classification
Site face (P_ipm X_i=0) no marked-collision jump no physical PL transvection established existing energy/Cayley--Menger coefficient support
Fixed-base Heron component yes, on the three physical components (T_s=-1, T_u=1, N=0) orientation Kummer coefficient on existing Gram carrier
All-plus Heron component only at the all-soft origin product soft/Kummer support existing soft/Gram carrier
Difference transfer (P_kpm(X_i-X_j)=0) no physical PL intersection (0) marked-relative coefficient support
Sum transfer (P_kpm(X_i+X_j)=0) no physical PL intersection (0) marked-relative coefficient support
Parallel-pole coincidence no pole union misses positive chain existing energy arrangement
Triple-marked support no pole union misses positive chain frozen CM polynomial on marked strata
Bulk CM fold physical boundary, resolved regular resolved PL (0, N=0) existing CM incidence
Loop-face line physical boundary, integrable radial power (1, N=0) existing CM face incidence
Distance-zero vertex physical endpoint, integrable radial power (2, N=0) existing CM vertex incidence
Soft--Gram overlap soft-only product Kummer normals, (N=0) existing soft plus Gram support
Graph homology (H_1) not generated by this radical census none assigned separate rational-integrand topology
New carrier structure absent — zero occurrences

The only generic nonsoft physically active algebraic component is therefore

[ \boxed{ ext{fixed-base Gram orientation Kummer}. } ]

Its activation is semisimple, not unipotent.

Endpoint, face, soft, and overlap closure

Entry 195 proves that the complete generic unmarked boundary is

[ ext{bulk fold} supset ext{three loop-face lines} supset ext{three distance-zero vertices}. ]

Their literal source powers are

[ 0,\qquad1,\qquad2, ]

respectively, so none is logarithmic.

Entry 193 proves that every physical intersection of two distinct Heron components forces one soft resultant and that all multiple intersections lie on soft support. The resolved corner has normal (pv), while the coarse invariant is (p^2v^2). No non-product cycle remains.

These results exhaust the endpoint, face, soft, and overlapping pinch classes for generic nondegenerate external kinematics and their soft/Gram boundary limits.

Carrier/coefficient theorem

Every surviving item belongs to exactly one of:

  1. existing energy/Cut carrier incidence;
  2. existing Cayley--Menger fold, face, vertex, or fixed-base Gram incidence;
  3. soft support;
  4. marked-relative coefficient support;
  5. rank-one orientation Kummer coefficient data.

No lower radical requires graph-homology activation, although the one-loop graph retains its independent rational-integrand (H_1). No item requires a cosmology-specific carrier stratum.

Therefore

[ \boxed{ ext{generic lower physical-sheet algebraicity}

ext{unchanged energy/Cut/Cayley--Menger carrier}

This is a finite theorem for the frozen lower sector, not an all-sector cosmological theorem.

Exact evidence

Scope boundary

Proved:

Not claimed:

Next hostile falsifier

Move one layer upward without changing the carrier: compute whether the nontrivial rank-seven algebraic kernel/elliptic extension of the full nine-master residue system couples to the physically active Gram Kummer line at a soft--Gram--total-energy corner. Freeze the Gysin sequence, nearby-cycle functor, and second Rees grade before calculation. A new carrier datum is admissible only if that frozen coefficient extension cannot carry the coupling.

Outcome contract

{
  "claim": "Every physically active generic lower-sector algebraic letter is generated by the unchanged energy/Cut/Cayley-Menger carrier with sector-specific relative Gauss-Manin or Kummer coefficients.",
  "status": "survived_as_finite_global_lower_sector_theorem",
  "cyclic_sectors": 3,
  "radicand_type_occurrences": 12,
  "finite_pair_collision_occurrences": 15,
  "irreducible_factor_occurrences": 150,
  "all_marked_collision_PL_intersections": 0,
  "only_generic_active_radical_component": "fixed-base Gram orientation Kummer",
  "active_monodromy": {"T_s": -1, "T_u": 1, "N": 0},
  "unmarked_boundary_radial_powers": [0, 1, 2],
  "soft_multi_gram_new_cycle": false,
  "graph_homology_radical_occurrences": 0,
  "genuinely_new_carrier_occurrences": 0,
  "classification": "unchanged energy/Cut/Cayley-Menger carrier plus sector-specific relative/Kummer coefficients",
  "counterexample": null
}

View source on GitHub