CBLTRLv0: CRYSTAL BOOLEAN LOGIC & TOPOLOGICAL RESONANCE LATTICE (version 0. 3. 4) This repository contains the Python implementation of the CRYSTAL BOOLEAN LOGIC & TOPOLOGICAL RESONANCE LATTICE (CBLTRLv0), a phenomenological framework that derives Standard Model masses, coupling constants, and mixing matrices from a discrete 14-channel cuboctahedral-octahedral lattice. The model replaces continuous differential equations with pure topological arithmetic based on six dimensionless geometric invariants (κ, δ, χ, φ, π, e) and a single confinement scale (Rconf = 0. 91 fm). By interpreting particles as phase-localization modes and interactions as impedance gradients within a synchronous computational lattice, the framework reproduces 25+ PDG 2024 observables with ≥99. 8% accuracy without introducing arbitrary free parameters. The script includes a self-contained verification table, built-in documentation mapping discrete Boolean logic to physical sectors, and explicit computational boundaries. CBLTRLv0 is presented as a first-order topological projection rather than a closed theory, offering a verifiable, predictive baseline for discrete lattice field theory and emergent macro-physics. Future iterations will focus on deriving analytical proofs from the discrete graph Laplacian and extending the mapping to cosmological frequency responses. version 0. 1 Updates (APPENDIX A: HARDWARE REGISTRATION & TOPOLOGICAL FORMALISM): This version introduces a strict hardware-level computational formalism to Model CBLTRLv0. The local 14-channel super-node is explicitly mapped onto a 52-bit integer cluster register, establishing exact bit-level masking, routing vector schematics, and pure Boolean gate logic mapping layouts (AND, OR, XOR, NAND, LATCH) across the cuboctahedral-octahedral equilibrium boundaries. Includes algorithmic cell-loop pseudocode instructions for standalone digital execution. version 0. 1. 1 formatting correctedversion 0. 1. 2 Updates (APPENDIX A: TOPOLOGICAL CAPACITY INDEX & DISCRETE STATE FORMALISM): To bridge the phenomenological parameterization of Model CBLTRLv0 with a computable discrete framework, the local 14-channel super-node is mapped onto a topological capacity register. This mapping encodes the equilibrium boundaries of the cuboctahedral-octahedral lattice using a minimum basis of 52 discrete degrees of freedom. version 0. 3 added CBLTRLv0 Core Architecture: Absolute Soliton Propagation, Integer Loop Matrices, and Internal Vacuum Fine-Structureversion 0. 3. 1 added Fractional matrix of the discrete vacuumversion 0. 3. 2 fix table version 0. 3. 3 added Topology Mass Table of Elements (v0. 1: Rough Cut) (file TMTE01. py) This is a theoretical exploration table, not experimental data. It shows nuclear masses and relatedvalues derived purely from five geometric constants (chi, delta, kappa, phi, Hₛhield) with zero empirical fitting parameters. Use it for curiosity, hypothesis generation, or educational purposes only. Do not use for engineering, safety calculations, or replacing established nuclear data libraries. What is included: Element symbol, Z, A, predicted mass (MassTRL), reference CODATA mass, deviation percentage, Compton-equivalent frequency, theoretical energy thresholds for perturbation and destruction, equivalent momentum values, topological stability scores, magic number flags, robustness ratios, and Z/N ratios with deviation from the topological ideal chi/chibar. What is not included: Dynamic multi-node coupling, shell effects, pairing energy, nuclear deformation corrections, decay rates, reaction cross-sections, unstable isotopes, or uncertainty estimates. The model uses static topologyonly and spherical approximation. How to use: Compare MassTRL with MassREF to see geometric prediction accuracy. Use Freq for resonance hypothesistesting. Treat Eₚert and Edest as theoretical thresholds for coherent control concepts. Ignore values if you need sub-0. 1% precision - use CODATA or AME2020 instead. The table is deterministic and reproducible via the provided Python script. Important: Deviations around 1% indicate topological stress zones, not model failure. Magic flags show empirical magic numbers, not TRL predictions. High robustness values reflect theoretical energy gaps, not physical indestructibility. This is geometric sketch exploring whether mass could emerge from discrete phase localization. It is not established physics. Built for fun, shared in good faith. version 0. 3. 4 added Matter as a Trapped Phase Vortex in the Partial-Transparency Window of the Vacuum Lattice (file TBP. py) Inertial mass does not arise from fundamental fields or symmetry breaking, but emerges exclusivelyat the n=0 inflection layer where geometric constraints force the phase bus into a 56% transparency window, trapping phase circulation into stable topological vortices while levels n0 tunnel into conformal radiationDetailed description in the comments in the file TBP. py
Ivan Doroshenko (Sat,) studied this question.