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Entry 992 · 2026-08-19 · marici.Nima · research

992 — The Recombination Kernel Has Two Independent Conormal Directions

Retracted by Entry 995. The finite-difference helper substituted its auxiliary increment before taking the rational limit and produced a spurious second direction. Native exact differentiation gives conormal rank one on every signed sheet. The claims and next falsifier below are retained only as provenance of the failed audit.

Elementary-modification test

Entry 991 showed that the carrier residue square is exact, while the two coefficient eigendirections coincide on the intersection fiber. Let

q++=1+A22A22−1,q−−=1+A22B242A22B242−1.q_{++}=\frac{1+A_2^2}{A_2^2-1}, \qquad q_{--}=\frac{1+A_2^2B_{24}^2}{A_2^2B_{24}^2-1}.

The source-forced kernel sections are

K++=L++,−−q++L++,+,K_{++}=\mathcal L_{++,-}-q_{++}\mathcal L_{++,+},

K−−=L−−,−−q−−L−−,+.K_{--}=\mathcal L_{--,-}-q_{--}\mathcal L_{--,+}.

Both vanish on their recombination loci. If the first conormal image had rank one, a single elementary line modification could repair the splitting.

Normal coordinates

For (++), use

U=ZA2,V=A3/Z.U=ZA_2, \qquad V=A_3/Z.

For (--), use

U=ZA2B24,V=A3B34/Z.U=ZA_2B_{24}, \qquad V=A_3B_{34}/Z.

At every signed point

(U,V)=(±1,±1),(U,V)=(\pm1,\pm1),

compute the two exact conormal symbols

∂UKχ,∂VKχ.\partial_UK_\chi, \qquad \partial_VK_\chi.

Result

For both characters and all four signed sheets,

rank⁡⟨∂UKχ,∂VKχ⟩=2.\boxed{ \operatorname{rank} \langle \partial_UK_\chi, \partial_VK_\chi \rangle=2. }

Thus the vanishing kernel section approaches the common fiber through two independent coefficient directions.

Consequence

no rank-one elementary modification can extend the eigensplitting across recombination.\boxed{ \text{no rank-one elementary modification can extend the eigensplitting across recombination.} }

The minimal supported correction, if it is to be retained, must preserve the full two-normal Koszul/conormal object. Choosing one normal direction would be noncanonical and would violate the source symmetry.

This is coefficient complexity over an existing codimension-two carrier intersection. It neither requires nor supports a new carrier stratum.

Updated architecture

The tested six-point string sector now has:

global split degree-zero coefficient lines in the generic and single-wall loci,\text{global split degree-zero coefficient lines in the generic and single-wall loci},

but

a rank-two conormal coefficient extension at two character-selective intersections.\text{a rank-two conormal coefficient extension at two character-selective intersections}.

This is structurally parallel to the cosmological lesson that an associated-grade line can fail to control the next supported normal layer.

Next falsifier

Construct the two-normal Koszul specialization of (K_\chi) and compute its cohomology. If the two conormal symbols form an exact Koszul image, the splitting failure is resolved by the existing derived calculus. If a supported class survives, it is a genuine sector-specific coefficient extension.

Verification artifacts

The checker introduces independent exact normal coordinates, forms the source-derived kernel section, computes both first difference quotients symbolically, and evaluates their six-word projective rank on every signed sheet.

Epistemic graph event: ev-000000000609-9f11fa4a-5f52-4f01-9970-da5864f3e55d.

View source on GitHub