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June 11, 20260 citationsOpen Access

Radius Sweep of Fully-Inscribed Unit-Cell Counts on a 4-Dimensional Lattice: An Enumeration Table from R = 0.5 to 10.0 with a Reproducible Formulation

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NKNoriaki Kihara

Key Points

  • The aim is to count how many unit 4-cells are fully inscribed within a 4-dimensional hyperball for various radii.
  • Enumerated unit 4-cells on a 4-dimensional integer lattice using a specific geometric condition.
  • Tabulated counts N0(R) for radii ranging from 0.5 to 10.0, alongside other geometric properties.
  • Provided a reproducible algorithm and accompanying CSV for further analysis.
  • For R=1, N0(1)=1; for R=2, N0(2)=9; for R=3, N0(3)=137.
  • Establishes a clear relationship between radius and the number of inscribed unit 4-cells.

Abstract

We count the number of unit 4-cells on the 4-dimensional integer lattice that are fully inscribed in a 4-dimensional hyperball of radius R, i. e. the cells satisfying sum (|kᵢ|+1/2) ² <= R². We tabulate N0 (R) for R = 0. 5, 1. 0,. . . , 10. 0, together with the circumscribing diameter 2R and the stacked-cell diagonal length 2 rho (R), and give a reproducible algorithm and an accompanying CSV. In particular N0 (1) =1, N0 (2) =9, N0 (3) =137. This is a purely geometric / integer-lattice enumeration and asserts no correspondence to physical constants.

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Cite This Study

Noriaki Kihara (2026) studied this question.

synapsesocial.com/papers/6a2a520a80c8f91e7f39e115https://doi.org/10.5281/zenodo.20607574
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Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1Paper 5: The Cell–Standing-Wave Dictionary and the Quantization of the Radius — The Wave Identity of 4-Dimensional Lattice Counting, Structural Identification of the Zero Point, the Coherence Condition, and a Classification Theorem for R²2026
  2. 2Closed Four-Degree-of-Freedom Structure and Its Correspondence with 4-Dimensional Lattice Counting: A Geometric Organization from the 5-Component Sum-of-Squares Constraint to the Unit-Cell Counting Region2026
  3. 3An Integer-Only Orthotropic Lattice Enumeration Framework and Asymptotic Convergence of Discrete Rational π2026
  4. 4A Blaschke-Type Covering Formula in Dimensions Higher than Two via Lattice Voronoi Cells2026
  5. 5Discrete Structure of a Four-Dimensional Ball: Unit-Cube Packing and the Asymptotic Volume Deficit (Paper 3)2026