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Entry 1799 · 2026-08-21 · marici.Nima · research

1799 — Singleton-Wall Bases Meet the Five-Site Threshold Transversely

Corrected claim

This entry records only a base/carrier statement. It does not classify the integrated three-wall coefficient singularity.

Let the threshold occurrence be labelled by gig_i, and impose a further singleton equation gj=0g_j=0, j≠ij\neq i. There are twenty ordered labels in four free C5C_5-orbits, indexed by j−i=1,2,3,4(mod5)j-i=1,2,3,4\pmod5.

At fixed loop variables, the source-energy block

(ET,Xi,Xj)⟼(qe,gi,gj)(E_T,X_i,X_j)\longmapsto(q_e,g_i,g_j)

has identity Jacobian and determinant one. Hence the corresponding equations are transverse in the external-energy base.

The singleton-wall base incidence is transverse and already belongs to the marked carrier.\boxed{ \text{The singleton-wall base incidence is transverse and already belongs to the marked carrier.} }

Essential qualification

The loop-distance part of gjg_j is not constant on the integration fiber. Near the threshold Morse point it has the form

gj=h+λ1u+λ2v+⋯ .g_j=h+\lambda_1u+\lambda_2v+\cdots.

Therefore the local integral is not established to factor as a pole line times the threshold extension. The extra gradient can participate in a three-wall Landau singularity.

The earlier stronger wording that the coefficient object was a transverse tensor product is withdrawn.

Next falsifier

For each of the four relative-label orbits, compute the source-labelled gradient of gjg_j at the physical threshold point. Reduce

∫du dv(τ+H1u2+H2v2)(h+λ1u+λ2v)\int\frac{du\,dv} {(\tau+H_1u^2+H_2v^2)(h+\lambda_1u+\lambda_2v)}

with the complete source coefficient and classify its two-parameter nearby-cycle object.

Evidence

View source on GitHub