Published May 31, 2026 | Version V33.0
Preprint Open

The Lattice Field Medium: A Computational Substrate for Emergent Physics

Description

The Lattice Field Medium

Version: 32.0 (May 2026)

Overview

The Lattice Field Medium (LFM) is a discrete substrate framework in which spacetime emerges from a simple cubic lattice carrying two coupled fields: E in R and chi in R. Complex phase structure Psi in C and color structure Psi_a in C^3 are emergent observational extensions, not axioms.

Core Equations

GOV-01: Causal Core

d2E/dt2 = c2 nabla2 E - chi2 E

GOV-02: chi Medium Equation

d2chi/dt2 = c2 nabla2 chi
- (kappa/chi0) chi (sum_a |Psi_a|2 - E0^2)
- 4 lambda_H chi (chi2 - chi0^2)

Canonical Constants

chi0 = 19
kappa = 1/63
lambda_H = 4/31

Canonical Mixed Stencil (v32.0)

GOV-01 canonical 3D propagation stencil: 27-point (faces + edges + corners).

GOV-02 canonical 3D vacuum/substrate stencil: 19-point (center + 6 faces + 12 edges), with corners excluded in the chi vacuum operator.

GOV-02 19-point form:

nabla2 chi = (1/dx2) [ (1/3) sum_faces + (1/6) sum_edges - 4 chi_center ]

Lattice Field Medium GOV-01 and GOV-02 equations in Python form:

def gov01_step(E_now, E_prev, chi_now, lap_E_27pt, dt, c=1.0):
return (
2.0 * E_now
- E_prev
+ dt2 * (c2 * lap_E_27pt - chi_now**2 * E_now)
)

def gov02_step(chi_now, chi_prev, energy_now, lap_chi_19pt, dt,
c=1.0, kappa=1/63, chi0=19.0, lambda_H=4/31, E0_sq=0.0):
return (
2.0 * chi_now
- chi_prev
+ dt2 * (
c
2 * lap_chi_19pt
- (kappa / chi0) * chi_now * (energy_now - E0_sq)
- 4.0 * lambda_H * chi_now * (chi_now2 - chi02)
)
)

v32.0 Update: GOV-02 Derived Observables

This release adds Section XIV: GOV-02 Derived Observables and Appendix E: chi Memory / Relaxation / Screening Observables.

GPU validation:
64^3 lattice
NVIDIA RTX 4060
2026-05-04

Central GOV-02 Result

omega_chi = sqrt(8 lambda_H) chi0 = 19.304

l_chi = c / omega_chi
l_chi = 1 / 19.304
l_chi = 0.0518 lattice units

The chi screening length is sub-lattice. Therefore the quasi-static chi limit is not merely an approximation at astrophysical scales. It is forced by the canonical constants.

Key GOV-02 Observable

M(x,t) = chi0 - chi(x,t)

d2M/dt2 - c2 nabla2 M + omega_chi2 M = kappa (|E|2 - E0^2)

Quasi-Static Memory Limit

M_qs asymp [kappa / (8 lambda_H chi0^2)] (|E|2 - E0^2)

Measured coefficient:
4.26 x 10^-5

Confirmed GOV-02 Effects

  • chi ringing
  • chi relaxation oscillation
  • moving chi wake anisotropy
  • rotating-source chi memory
  • galactic chi-memory extension
  • conservative chi decay
  • chi wake persistence
  • chi correlation structure

Wake anisotropy ratio: 2.308
chi decay: gamma asymp 0

Non-Detections

The following remained below float32 precision and are reported as numerical non-detections, not falsifications:

  • chi-Bremsstrahlung
  • refractive delay
  • two-source superposition

Interpretation

GOV-01 governs excitations. GOV-02 governs the medium itself. The chi field behaves as substrate stiffness, geometry memory, relaxation medium, screening field, refractive structure, and causal propagation regulator.

Files

LFM_FRAMEWORK_INTRODUCTION.md

Files (2.5 MB)

Name Size Download all
md5:ddf77294cb55bb13cd1d11f5bc65e059
62.9 kB Download
md5:fac56e0892388fc39dced45d8da43412
56.7 kB Preview Download
md5:4b1e0a8ca2f8450dd0f079fad9974b0f
148.7 kB Preview Download
md5:e046cb3f9227191622328d5740a1b5ba
56.4 kB Preview Download
md5:453cab41f03ecce3e25a8c95d6b1ab1c
142.6 kB Preview Download
md5:07220b05dbd641b426afab44b727a596
402.6 kB Preview Download
md5:2f58170611b819fb0d83a6e3a7da7585
14.0 kB Preview Download
md5:b1293c980357e49663636ce7413ea723
5.3 kB Preview Download
md5:a693058f5b26be9b3e5dd255dacb6fdd
22.8 kB Preview Download
md5:bf1d6de4ca1de249e742690ad98361eb
33.0 kB Preview Download
md5:ec1cec2cfbb1b1910a6d7d47931c82ef
13.3 kB Preview Download
md5:c8814f837a83599df9e755c2a06e6f5b
15.1 kB Preview Download
md5:94d8b1c540015d011664765b7864249d
29.7 kB Preview Download
md5:b058a408983dd47c1fa34c22a7edead0
11.8 kB Preview Download
md5:e959ddf14cd8b1bcc455f178ebc4eb34
23.9 kB Preview Download
md5:f89370ca63b20b3ee355fab60eb5301b
32.1 kB Preview Download
md5:dad0f4987991d8eed6b205fa09ef7496
8.3 kB Preview Download
md5:ffc1a37a6907c6acb0edd3073ef74500
19.1 kB Preview Download
md5:03e2db2257b310a347c02d33d81f9889
5.4 kB Preview Download
md5:cb6d69db168c0d3196e3fd620ec3a1ad
79.8 kB Preview Download
md5:4bfdad84a36f0f5d7327aa94ec86bf89
28.8 kB Preview Download
md5:a345ba33095b0b15050a5aff2b8db507
120.7 kB Preview Download
md5:4c15dcea2a25eae9c42fb7659e28acbf
15.5 kB Preview Download
md5:36f00a02b1ce746ad60754e55d2764d7
43.7 kB Preview Download
md5:9add66fc06116f50106dade862097e46
49.8 kB Preview Download
md5:85729fd90138e63992b7e09f87bf944e
1.0 MB Preview Download
md5:b469de6461a02076d2a67731e61f35f8
7.6 kB Preview Download
md5:b71971153ba7dddcfa2e80437a5b3e39
7.3 kB Preview Download

Additional details

Related works

Is supplemented by
Preprint: 10.5281/zenodo.18577753 (DOI)
Preprint: 10.5281/zenodo.17460764 (DOI)
References
Software: https://pypi.org/project/lfm-physics/ (URL)

Software

Repository URL
http://www.github.com/gpartin/lfmpublicexperiments
Programming language
Python
Development Status
Active