📂 TOF REGISTRY ENGINEERING LOG

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Authors: Brian Simpson
Cited by: 0

Abstract

The Octomorphic Registry: A Finite-State Derivation of Physical and Chemical Law This repository contains a fully reproducible, parameter-free derivation of elemental identity, valence, and molecular structure from a finite topological registry. The Octomorphic Registry is an 84-state discrete system generated from the incidence geometry of the Fano plane augmented by a 2-bit lift structure. All physical properties presented here emerge strictly from graph topology, admissible transitions, and closure constraints—no empirical constants, fitted parameters, or external calibration are used. What this work does Constructs a deterministic 84-state registry from first principles Partitions the registry into eight residue blocks via a fixed capacity vector Enumerates admissible topological motifs (3-cycles and 4-cycles) under strict strain gates Derives elemental identity from motif census alone Proves Carbon’s uniqueness as the sole block containing a self-stabilizing core loop Derives Carbon’s valence (= 4) via an exact Maximal Independent Set computation Compiles Methane (CH₄) without invoking electrons, orbitals, or quantum chemistry Establishes molecular stability, bonding limits, and rigidity as topological inevitabilities All results are algorithmic outputs, not interpretive fits. What this work does not do It does not assume the periodic table It does not import chemical bonding models It does not rely on quantum mechanics, orbitals, or wavefunctions It does not fit experimental data It does not tune parameters Standard physics and chemistry appear only as downstream correspondences, never as primitives. Reproducibility The repository includes: Complete registry construction code Explicit adjacency and gate definitions Exact motif enumeration algorithms Brute-force Maximal Independent Set solvers Full execution transcripts for all phases An implementation-invariance appendix demonstrating code-independent results Any independent implementation respecting the stated constraints will reproduce the same outputs. Scope This artifact establishes the instruction set underlying matter. Later phases address lattice tiling (diamond/graphene), thermodynamics, electromagnetism, gravitation, and time as registry dynamics, but no speculative extensions are required to validate the core results. Intended audience Mathematical physicists Theoretical chemists Graph theorists Foundations-of-physics researchers Anyone interested in deterministic alternatives to parameterized physical models Status Frozen / Normative This release is an executable audit, not a proposal.

Fields of Study & Subjects

Graph theory and applications History and advancements in chemistry Advanced Mathematical Theories and Applications

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
4 February 2026