The Negative-Curvature Re-stellation – The Hyperbolic Origins Of Matter

Matter emerges as a negatively curved restellation of an otherwise flat superfluid. Each restellation traps an integer Hopf charge whose chirality is determined by the underlying hyperbolic tiling parameters. When one drives the system at frequency ratios p ∶ q, pockets of negative curvature nucleate with a characteristic velocity splitting proportional to κ(p − q)/(p q). The resulting rhombic patterns are freeze-frames of p∶q harmonics, and their handedness is not an ad hoc attribute but the unavoidable orbital angular momentum of a negative-curvature pocket. A simple, universal wave equation endowed with a nonlinear coherence pump captures how these chiral pockets form, persist, and self–amplify, without invoking any external cosmic, neural, or metamaterial context. In a flat Euclidean plane left and right are interchangeable by a global reflection. In contrast, a hyperbolic slice admits no single isometry that simultaneously flips every face of a regular {p,q} tessellation. Some geodesics reverse under reflection, others do not, so handedness becomes baked into the metric. As soon as a physical field condenses on such a negatively curved lattice, two inequivalent sectors labeled by σ = ±1 emerge spontaneously and cannot be undone by any smooth deformation. This intrinsic hyperbolic chirality underlies the behavior of “particles” in the Resonance-Synchronization Model (RSM), which treats matter as local restellations of a universal superfluid background.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-04-30
DOI
https://doi.org/10.5281/zenodo.15310641
Primary Topic
Forest ecology and management
Type
article
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article

The Negative-Curvature Re-stellation – The Hyperbolic Origins Of Matter

Zenodo (CERN European Organization for Nuclear Research)
Forest ecology and management
article

The Negative-Curvature Re-stellation – The Hyperbolic Origins Of Matter

article en

Abstract

Matter emerges as a negatively curved restellation of an otherwise flat superfluid. Each restellation traps an integer Hopf charge whose chirality is determined by the underlying hyperbolic tiling parameters. When one drives the system at frequency ratios p ∶ q, pockets of negative curvature nucleate with a characteristic velocity splitting proportional to κ(p − q)/(p q). The resulting rhombic patterns are freeze-frames of p∶q harmonics, and their handedness is not an ad hoc attribute but the unavoidable orbital angular momentum of a negative-curvature pocket. A simple, universal wave equation endowed with a nonlinear coherence pump captures how these chiral pockets form, persist, and self–amplify, without invoking any external cosmic, neural, or metamaterial context. In a flat Euclidean plane left and right are interchangeable by a global reflection. In contrast, a hyperbolic slice admits no single isometry that simultaneously flips every face of a regular {p,q} tessellation. Some geodesics reverse under reflection, others do not, so handedness becomes baked into the metric. As soon as a physical field condenses on such a negatively curved lattice, two inequivalent sectors labeled by σ = ±1 emerge spontaneously and cannot be undone by any smooth deformation. This intrinsic hyperbolic chirality underlies the behavior of “particles” in the Resonance-Synchronization Model (RSM), which treats matter as local restellations of a universal superfluid background.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 53%
Forest ecology and management
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