USR-2026-0050 · Information

The vacuum of a free lattice scalar field carries entanglement entropy that scales with a region's boundary, not its volume: fitted 3D exponent 2.09±0.01 (area predicts 2, volume 3), 2D 1.05 (perimeter), 1D flat to 9 digits. Bekenstein–Hawking-like area scaling emerges from a bare field theory with no gravity input (Srednicki 1993, independently recomputed).

PROVISIONAL 3D exponent 2.09 (area = 2, volume = 3) — fit s.e. ±0.01, not an evidence σ reproduced ≠ discovered re-run & confirmed 2026-07-26 (R0 — founder CI; independence pending)

The load-bearing input to Jacobson/Verlinde/Ryu–Takayanagi arguments — vacuum entanglement natively carries area scaling — comes out of a bare lattice with no gravity in it. Machinery check; says nothing about whether nature's gravity emerges this way.

Falsify-box — how to kill this claim

SURVIVED re-run yields a 3D exponent consistent with volume scaling (≥2.5) or unstable under fit-window shifts

Verification record — every quoted number, re-run 2026-07-26

quantitymeasuredverdict
3D scaling exponent 2.0895 ± 0.0062 (fit s.e.); window-shift moves it −0.009 MATCH
2D scaling exponent 1.0538 ± 0.0051 (perimeter law = 1) MATCH
1D saturation |S(64) − S(8)| = 8.8e-9 (flat, as a two-point boundary demands) MATCH
discriminator audit NO DISCRIMINATOR — reproduces GR/QFT by construction MATCH

Provenance

script: information_seam/area_law_scaling.py
script status: PRESENT
datasets: information-seam-scripts (downloadable from /data — run it yourself)
re-run: 2026-07-26

Status, honestly

verified by adversarial re-run (workflow, 2026-07-26); admitted from MCP intake INTAKE-4d6af727c9 | DISCRIMINATOR AUDIT 2026-07-26 (emergent_discriminator.py): this claim belongs to the thermodynamic-derivation wing, which reproduces general relativity or quantum field theory BY CONSTRUCTION and therefore carries NO observational discriminator — a computed and an uncomputed universe answer identically. Same category as USR-2026-0037/0038: verified machinery, not evidence about nature. Recorded on the claim rather than left implicit.. Status here is computed from evidence — the author cannot set it, and neither can we. Independent reproduction would move it; nothing else will.

§ Reproduction area_law_scaling.py

The founder's own run of this script, captured verbatim. A match proves the result is reproducible; it is still R0 on this registry's independence rings — same code, so it cannot move a status. Only an outside run does that.

sha256 5e82b6115bf206f3d94c9cf1… size 7715 B exit 0 runtime 8.5s env python 3.12.2 · numpy 1.26.4 determinism byte-stable
A · Recorded founder's machine · 2026-08-02
========================================================================
AREA LAW SCALING TEST  (Srednicki 1993 reproduction -- known result)
Free scalar lattice ground state, m = 1.0, exact Gaussian method
scipy: available (not required; pure-numpy path used)
========================================================================

[3D] 14x14x14 torus (2744 sites), centered s x s x s cubes
  s = 2   boundary sites 6s^2 =   24   S =     0.275013
  s = 3   boundary sites 6s^2 =   54   S =     0.651009
  s = 4   boundary sites 6s^2 =   96   S =     1.190797
  s = 5   boundary sites 6s^2 =  150   S =     1.894496
  s = 6   boundary sites 6s^2 =  216   S =     2.762119
  s = 7   boundary sites 6s^2 =  294   S =     3.793668
  s = 8   boundary sites 6s^2 =  384   S =     4.989141
  3D exponent, fit window s=2..8 :  p = 2.0895 +/- 0.0062  (fit s.e.)
  3D exponent, fit window s=3..7 :  p = 2.0803 +/- 0.0048  (fit s.e.)
  window shift moves p by -0.0093
  AREA law predicts p = 2 ; VOLUME law predicts p = 3

[2D] 32x32 torus (1024 sites), centered s x s squares
  s =  2  boundary sites 4s =   8   S =     0.179604
  s =  3  boundary sites 4s =  12   S =     0.281368
  s =  4  boundary sites 4s =  16   S =     0.383072
  s =  5  boundary sites 4s =  20   S =     0.484752
  s =  6  boundary sites 4s =  24   S =     0.586428
  s =  7  boundary sites 4s =  28   S =     0.688103
  s =  8  boundary sites 4s =  32   S =     0.789777
  s =  9  boundary sites 4s =  36   S =     0.891452
  s = 10  boundary sites 4s =  40   S =     0.993126
  s = 11  boundary sites 4s =  44   S =     1.094801
  s = 12  boundary sites 4s =  48   S =     1.196475
  2D exponent, fit window s=2..12:  p = 1.0538 +/- 0.0051  (fit s.e.)
  2D exponent, fit window s=3..10:  p = 1.0462 +/- 0.0035  (fit s.e.)
  AREA (perimeter) law predicts p = 1 ; VOLUME (bulk) law predicts p = 2

[1D] periodic chain, N = 200, centered interval of length s
     area law in 1D = boundary is 2 points = S saturates for s >> 1/m
  s =   2   S =    0.110097766
  s =   4   S =    0.111773556
  s =   8   S =    0.111800800
  s =  16   S =    0.111800809
  s =  32   S =    0.111800809
  s =  64   S =    0.111800809
  saturation check: |S(64) - S(8)| = 8.841e-09  (relative 7.908e-08)
  volume (extensive) scaling would have grown S by 8x over that range

========================================================================
HEADLINE NUMBERS
  p3 (3D, s=2..8)          = 2.0895 +/- 0.0062   [area=2, volume=3]
  p3 (3D, s=3..7, robust.) = 2.0803 +/- 0.0048
  p2 (2D, s=2..12)         = 1.0538 +/- 0.0051   [area=1, volume=2]
  p2 (2D, s=3..10, robust.)= 1.0462 +/- 0.0035
  1D saturation |S(64)-S(8)| = 8.841e-09  (flat = area law)
========================================================================
STATUS: reproduced-known-result; validates machinery, not nature.
B · Yours not runnable in-browser
This script needs data files, a heavy dependency,
or more time than a browser tab should take.
Download it from /data and run it locally.
Share this claim X Bluesky LinkedIn Reddit HN Email