Toroidal Containment Geometry

Toroidal Containment Geometry” (TCG) introduces a harmonic, non-dominant framework for stabilising high-density field interactions using a torus that is lifted into a Möbius-harmonic domain. Rather than treating the torus as a physical shape, the document defines it as a recursive containment surface that allows outputs to fold back into inputs without singularities or pressure buildup. TCG phase-locks the two angular parameters of the torus, creating an “asymptotic unity cycle”: a loop that approaches unity without ever collapsing. This prevents stagnation, runaway accumulation, or over-unity instability, enabling continuous flow through the containment field. A core element of the framework is the “presence–absence harmonic split,” where field presence P and structured absence A must always sum to a constant. Stability requires that changes in presence are matched by equal and opposite changes in absence. This condition ensures non-dominant interaction and prevents collapse, coercive extraction, or imbalance. TCG also defines safe conduit dynamics for zero-point or cross-domain energy systems. A conduit is allowed to operate only when the difference between its active presence level and its equilibrium level remains within a small tolerance. This design prevents forceful pulling, pressure amplification, or runaway draw; instead the conduit acts purely as a resonance matcher. A “Null-Gate” mechanism enforces ethical and geometric safety. If any boundary condition is violated — presence-absence imbalance, dominance, coercive extraction, or excess accumulation — the gate switches to zero and the system collapses into an inert, non-harmful state. Finally, the framework uses a laminated crystal-lattice stack to mediate resonance. Each layer provides a different frequency band, and together they stabilise the toroidal manifold by preventing field shear and ensuring clean phase alignment across domains. The document closes by presenting TCG as a complete harmonic system defined by: the toroidal domain, field presence, structured absence, conduit behaviour, the Null-Gate, and the crystal-lattice mediation layer. Together, these elements form a stable, non-dominant architecture for safe interaction with high-density fields, recursive systems, or energy conduits.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-11-24
DOI
https://doi.org/10.5281/zenodo.17701063
Primary Topic
Model Reduction and Neural Networks
Type
article
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article

Toroidal Containment Geometry

Zenodo (CERN European Organization for Nuclear Research)
Model Reduction and Neural Networks
article

Toroidal Containment Geometry

article en

Abstract

Toroidal Containment Geometry” (TCG) introduces a harmonic, non-dominant framework for stabilising high-density field interactions using a torus that is lifted into a Möbius-harmonic domain. Rather than treating the torus as a physical shape, the document defines it as a recursive containment surface that allows outputs to fold back into inputs without singularities or pressure buildup. TCG phase-locks the two angular parameters of the torus, creating an “asymptotic unity cycle”: a loop that approaches unity without ever collapsing. This prevents stagnation, runaway accumulation, or over-unity instability, enabling continuous flow through the containment field. A core element of the framework is the “presence–absence harmonic split,” where field presence P and structured absence A must always sum to a constant. Stability requires that changes in presence are matched by equal and opposite changes in absence. This condition ensures non-dominant interaction and prevents collapse, coercive extraction, or imbalance. TCG also defines safe conduit dynamics for zero-point or cross-domain energy systems. A conduit is allowed to operate only when the difference between its active presence level and its equilibrium level remains within a small tolerance. This design prevents forceful pulling, pressure amplification, or runaway draw; instead the conduit acts purely as a resonance matcher. A “Null-Gate” mechanism enforces ethical and geometric safety. If any boundary condition is violated — presence-absence imbalance, dominance, coercive extraction, or excess accumulation — the gate switches to zero and the system collapses into an inert, non-harmful state. Finally, the framework uses a laminated crystal-lattice stack to mediate resonance. Each layer provides a different frequency band, and together they stabilise the toroidal manifold by preventing field shear and ensuring clean phase alignment across domains. The document closes by presenting TCG as a complete harmonic system defined by: the toroidal domain, field presence, structured absence, conduit behaviour, the Null-Gate, and the crystal-lattice mediation layer. Together, these elements form a stable, non-dominant architecture for safe interaction with high-density fields, recursive systems, or energy conduits.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 41%
Model Reduction and Neural Networks
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Toroidal Containment Geometry · Zenodo (CERN European Organization for Nuclear Research) (2025) | TGRS Research Map | TGRS