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DOI

This repository contains the source files, manuscript, and supplemental materials for:

SpaceTCO: Unified Field Architecture 2.0

A Deterministic Geometric Framework for Physics, Computation, and Cognition


Abstract

SpaceTCO presents a unified geometric architecture in which physics, computation, and cognition emerge from a single deterministic substrate. Instead of treating thermodynamics, electromagnetism, quantum behaviour, biological coherence, and cosmology as separate domains, the framework derives them from the same underlying causal geometry.

At the foundation is the Universal Causal Operator, a discrete update rule that preserves coherence, adjacency, and identity across volumetric pixels defined by the 156-Metric. This metric, together with the Universal Field Phase Space and Conglomerate Calculus, establishes the minimal geometric conditions for stable matter, fields, and information flow.

Quantum structure appears as localized coherence wells; gravitation emerges as anisotropic causal flow; dark matter and dark energy arise from surplus and reciprocal curvature; and biological systems instantiate the same coherence-preservation logic through TADs, syntropic operators, and topological resonance. The SpaceTCO Operating System (v2.0) formalizes these principles into an executable architecture, providing a scale-invariant description of matter, identity, and temporal evolution. The result is a single computational geometry capable of expressing microphysics, cosmology, cognition, and macroscopic engineering within one coherent, falsifiable framework.


Falsifiability Claims

The SpaceTCO architecture is not merely theoretical; it makes explicit, testable predictions:

  • The 30.794 fm HTS Offset: A precise dimensional reduction threshold required for High-Temperature Superconductivity (HTS), achieved via an Inverse Halbach Array in a Bismuth-Graphene lattice.
  • The 0.866c Lorentz Saturation Bleed: Predicts a discrete, non-linear thermodynamic anomaly (a narrow-band spike in spontaneous photon emission) as heavy ions are accelerated past the $\gamma = 2$ computational limit in particle accelerators.
  • JLab Scattering Plateaus: Predicts distinct, repeating interference plateaus in high-momentum transfer elastic electron scattering data, falsifying the continuous spherical Woods-Saxon potential for heavy nuclei like Lead-208.

Repository Structure

This repository contains the foundational manuscript, the discrete execution engine, and falsifiability testing scripts.

  • /docs: Contains the final compiled SpaceTCO v2.0 manuscript (SpaceTCO_Unified_Field_Architecture_v2.0.pdf).
  • /src: Contains the Rust implementation of the Autonomous Resonance Hunter.
  • /scripts: Contains the Python script for the Polyhedral Falsifiability Test (Lead-208).

Execution Guide

The Autonomous Resonance Hunter

This engine calculates the exact structural instruction (ACN) required to achieve Harmonic Lock in the Bismuth-Graphene lattice.

Prerequisites

  • Rust Toolchain: Install rustc and cargo via rustup.rs.
  • Dependencies: The engine utilizes num-integer for large value calculations and rustfft for FFT operations.

Build Instructions

To compile the engine with maximum optimizations (recommended for benchmarking):

cargo build --release

Running

cargo run --release

Citation

Crago, N. (2026). SpaceTCO Unified Field Architecture: A Deterministic Geometric Framework for Physics, Computation, and Cognition (SpaceTCO-2.051). Zenodo. https://doi.org/10.5281/zenodo.20184970

License

MIT

Additional Helpful Documentation

-Deterministic Resolution of the Quantum State via a Discrete Prime‑Indexed Manifold

-A Bipartite Tensor Instruction Set Architecture (ISA) for Deterministic Consensus and Thermal Efficiency in High-Performance Computing

-Linear Comglomerate Calculus - Specification

-Linear Conglomerate calculus - Repository


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