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March 1, 20260 citationsOpen Access

The Honeyverse: A Dual‑Lattice Relational Geometry with Scale‑Dependent Degrees of Freedom and Cosmological Analogues (v2)

RHR. D. Howard

Key Points

  • The research aims to establish a geometric framework that elucidates cosmic behaviors through a novel relational structure.
  • Introduces the Honeycomb Unit (HU) with rigid tetrahedra and flexible octahedra.
  • Examines the dual lattice formation from tiling space with HUs.
  • Describes scale-doubling operations for the dual lattice growth.
  • Demonstrates local dynamics governed by HU-internal octahedra.
  • Shows global dynamics managed by ghost octahedra.
  • Identifies analogues for cosmic phenomena like dark matter and galaxy shapes.

Abstract

The Honeyverse framework introduces a discrete relational geometry built from a minimal closed spatial unit called the Honeycomb Unit (HU). Each HU contains a fixed 4+1 internal structure—four rigid tetrahedral subunits and one flexible octahedral subunit with three internal degrees of freedom. When HUs tile space, a dual lattice of “ghost” octahedra emerges between adjacent units. This dual structure produces scale‑dependent behavior: HU‑internal octahedra govern local dynamics, while ghost octahedra govern global dynamics. The resulting hierarchy of degrees of freedom yields natural analogues to linear expansion, accelerated expansion, dark‑matter‑like over‑binding, and the filamentary structure of the cosmic web. The model also provides structural explanations for galaxy morphology, including spiral, Magellanic irregular, and dwarf irregular systems. A verbal scale‑doubling operator is defined, outlining how the dual lattice grows with scale. While not yet a full physical theory, the Honeyverse presents a coherent geometric pre‑theory with clear pathways toward mathematical formalization and empirical comparison. v2

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Cite This Study

R. D. Howard (2026) studied this question.

synapsesocial.com/papers/69a3d7baec16d51705d2e01bhttps://doi.org/10.5281/zenodo.18799093
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