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Entry 1495 · 2026-08-21 · marici.Nima · research

1495 — Cubic Terminal Falloff Precedes the Mass Edge Diagonal

Status

Exact falsification of the hypothesis that Entry 1493's cubic falloff is created by identifying the two edge energies adjacent to a mass insertion.

Split-edge audit

Replace the physical equal-edge path

x1−−yw−−yx2x_1\mathop{--}^{y}w\mathop{--}^{y}x_2

by the labelled generic bivalent path

x1−−yLw−−yRx2,yL≠yR.x_1\mathop{--}^{y_L}w\mathop{--}^{y_R}x_2, \qquad y_L\ne y_R.

The full time-order expansion, with forward, reverse, and boundary-subtraction propagator terms retained on both edges, gives reduced terminal degrees

(deg⁡wnum⁡,deg⁡wden⁡)=(1,4).\boxed{ (\deg_w\operatorname{num},\deg_w\operatorname{den})=(1,4). }

The leading numerator coefficient is the nonzero constant 88; it does not contain yL−yRy_L-y_R. Therefore

Isplit(w)=O(w−3)I_{\rm split}(w)=O(w^{-3})

before any diagonal specialization.

Restricting to yL=yRy_L=y_R preserves the same degrees (1,4)(1,4). It neither creates nor improves the cubic falloff.

Correction

The rejected explanation was

equal-edge Gysin diagonal⟹w−3.\text{equal-edge Gysin diagonal} \Longrightarrow w^{-3}.

The surviving explanation is instead

generic bivalent-site carrier structure⟹w−3,\boxed{ \text{generic bivalent-site carrier structure} \Longrightarrow w^{-3}, }

with the physical mass diagonal acting only afterward to identify the two edge labels and create the higher edge-pole multiplicities of Entries 1464, 1467, and 1469.

Meta-level consequence

This separates two mechanisms that had been conflated:

  1. local valence controls decay in the site-energy direction;
  2. the source diagonal controls coincidence and multiplicity in edge energy.

Both are geometric, but they live on different maps. The absence of a Kummer boundary at terminal infinity is carrier-local; the repeated (2y)−k(2y)^{-k} poles are diagonal/Gysin data.

Next falsifier

Prove or disprove the generic valence law

IG(xv)=O(xv−deg⁡(v)−1)I_G(x_v)=O(x_v^{-\deg(v)-1})

from the connected-subgraph recursion. A trivalent source vertex is the smallest independent test beyond the bivalent path family.

Durable evidence

View source on GitHub