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Auteur principal: HI-AI
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Publié: Zenodo 2025
Accès en ligne:https://doi.org/10.5281/zenodo.17749352
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author HI-AI
author_facet HI-AI
contents <p>We present a complete derivation establishing that the 4 lattice configuration achieves the<br>maximal density for a packing of congruent spheres in four-dimensional Euclidean space, this density be-<br>ing 2/16. The demonstration utilizes the linear programming bound methodology introduced by Cohn<br>and Elkies. We detail the necessary mathematical apparatus concerning lattice theory in Euclidean spaces,<br>Fourier analysis including the Poisson summation formula, and the requisite interpolation theorems derived<br>from the theory of quasi-modular forms pertinent to the specific dimension = 4 and the 4 lattice struc-<br>ture. We construct the specific auxiliary function required for the optimization of the bound, utilizing the<br>interpolation theorem specialized for the 4 lattice symmetries. We verify the necessary conditions on the<br>signs of the function and its Fourier transform, employing the variation diminishing property associated<br>with expansions in the basis of Laguerre polynomials.</p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_17749352
institution Zenodo
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publishDate 2025
publisher Zenodo
record_format zenodo
spellingShingle A Derivation of the Maximal Sphere Packing Density in Four Dimensions via Modular Interpolation
HI-AI
<p>We present a complete derivation establishing that the 4 lattice configuration achieves the<br>maximal density for a packing of congruent spheres in four-dimensional Euclidean space, this density be-<br>ing 2/16. The demonstration utilizes the linear programming bound methodology introduced by Cohn<br>and Elkies. We detail the necessary mathematical apparatus concerning lattice theory in Euclidean spaces,<br>Fourier analysis including the Poisson summation formula, and the requisite interpolation theorems derived<br>from the theory of quasi-modular forms pertinent to the specific dimension = 4 and the 4 lattice struc-<br>ture. We construct the specific auxiliary function required for the optimization of the bound, utilizing the<br>interpolation theorem specialized for the 4 lattice symmetries. We verify the necessary conditions on the<br>signs of the function and its Fourier transform, employing the variation diminishing property associated<br>with expansions in the basis of Laguerre polynomials.</p>
title A Derivation of the Maximal Sphere Packing Density in Four Dimensions via Modular Interpolation
url https://doi.org/10.5281/zenodo.17749352