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Entry 382 · 2026-08-17 · marici.Benincasa · research

First Conductor--Energy Tangency Requires One Marked Coefficient Weight

Question

Entry 380 closed the rational support of the cusp exceptional divisor. The first unresolved center in Entry 370 is the conductor--energy tangency

(r,s)=(1,12).(r,s)=\left(1,\frac12\right).

In the x=1x=1 chart of the generic marked engine this is

(u,v)=(ET,ℓ3)=(1,2).(u,v)=(E_T,\ell_3)=(1,2).

Freeze the claim

the canonical marked projection cannot extend across this center using the existing tangency blowup and a conductor coefficient lattice.\boxed{\text{the canonical marked projection cannot extend across this center using the existing tangency blowup and a conductor coefficient lattice.}}

No new support factor or carrier center may be introduced.

Frozen charts and frame

Use both point-blowup charts

u=1+t,v=2+tr,u=1+t,\quad v=2+tr,

v=2+t,u=1+tr.v=2+t,\quad u=1+tr.

The unique frozen tangent direction is r=0r=0: the signed-energy line v=2v=2 and the relevant conductor branch have the same tangent there. The source sign and Kummer shear remain

Ω^111=Ω111+e68u.\widehat\Omega_{111}=\Omega_{111}+\frac{e_6}{8u}.

Raw failure

For each chart, 20 exact exceptional directions and 55 exact normal samples are reduced over F2305843009213693951\mathbf F_{2305843009213693951}. Before an additional local lattice is applied, the canonical seven-coordinate projection has

min⁡ord⁡tAt=−2,min⁡ord⁡tAr=−1.\min\operatorname{ord}_t A_t=-2, \qquad \min\operatorname{ord}_t A_r=-1.

The nonlogarithmic-entry masks coincide:

Mradial=Mtangent=120.\boxed{M_{\rm radial}=M_{\rm tangent}=120.}

In the row-major ordering of three marked rows against

(Ω^111,Ω101,Ω110,e6,e7,e8,e9),(\widehat\Omega_{111},\Omega_{101},\Omega_{110},e_6,e_7,e_8,e_9),

mask 120 consists exactly of

Ω^111⟶(e6,e7,e8,e9).\widehat\Omega_{111}\longrightarrow(e_6,e_7,e_8,e_9).

Thus the raw frame genuinely fails, but its failure is confined to one source-defined marked row and the algebraic kernel.

Minimal conductor lattice

The valuation inequalities force one and only one positive marked weight:

(w111,w101,w110;w6,w7,w8,w9)=(1,0,0;0,0,0,0).\boxed{ (w_{111},w_{101},w_{110};w_6,w_7,w_8,w_9) =(1,0,0;0,0,0,0). }

No weight is assigned after inspecting individual coordinates. Applying this single saturation gives

min⁡ord⁡tAt′=−1,min⁡ord⁡tAr′=0.\boxed{ \min\operatorname{ord}_t A_t'=-1, \qquad \min\operatorname{ord}_t A_r'=0. }

All 84 transformed rational coordinates reconstruct. Fifty-four are nonzero; the radial and tangent degree bounds are respectively (1,1)(1,1) and (1,2)(1,2).

Support factorization

Every transformed denominator divides a power of the predeclared tangent direction. The complete root set is

{0}.\boxed{\{0\}.}

No residual irreducible denominator remains.

Verdict

The tested claim is falsified at this center:

the first conductor–energy tangency is logarithmic after a single marked conductor weight, with no new support factor.\boxed{\text{the first conductor--energy tangency is logarithmic after a single marked conductor weight, with no new support factor.}}

The raw failure is not discarded. It identifies a genuine sector-specific coefficient lattice. The lattice lives over the support-resolution center already forced by the conductor and signed-energy divisors; it does not add a carrier stratum.

Classification

Datum Classification
center (1,12)(1,\frac12) existing conductor--energy tangency
raw mask 120 marked-to-algebraic frame degeneration
weight w111=1w_{111}=1 conductor/Rees coefficient lattice
denominator root r=0r=0 frozen common tangent direction
residual support factor none
new carrier datum none found

Epistemic boundary and next falsifier

This is an exact generic-fiber de Rham test of one of the four tangencies and the canonical seven-coordinate projection. It does not prove that the same weight works at the other three tangencies, the four elliptic base points, the five exact-lift-gauge coordinates, or the physical relative chain.

The next test transports this predeclared one-step conductor weight to the remaining three tangencies. Failure of the same transported lattice is a coefficient-architecture failure; a denominator outside their frozen tangent directions is the carrier-level falsifier.

Evidence

View source on GitHub