Horizontal miniatures and normal-sized miniatures of convex lattice polytopes

Fuente: arXiv
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Autore principale: Hirotsu, Takashi
Natura: Preprint
Pubblicazione: 2026
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author Hirotsu, Takashi
author_facet Hirotsu, Takashi
contents Let $d$ be a nonnegative integer, and let $P \subset \mathbb R^d$ be a $d$-dimensional convex lattice polytope. In this article, we prove that the ratio of the volume of a normal-sized miniature of $P$ to that of $P$ is $1:\binom{2d+1}{d},$ which generalizes the known results for the unit hypercube and lattice simplices provided by the author. This theorem is proven by establishing that the number of horizontal miniatures of $P$ with resolution $t$ is a polynomial of degree $d+1$ in $t$ whose leading coefficient is $\mathrm{vol}\,(P)/(d+1),$ which is derived from Ehrhart theory.
format Preprint
id arxiv_https___arxiv_org_abs_2605_20905
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Horizontal miniatures and normal-sized miniatures of convex lattice polytopes
Hirotsu, Takashi
Combinatorics
52B20 (Primary) 05A15, 11P21, 28A75 (Secondary)
Let $d$ be a nonnegative integer, and let $P \subset \mathbb R^d$ be a $d$-dimensional convex lattice polytope. In this article, we prove that the ratio of the volume of a normal-sized miniature of $P$ to that of $P$ is $1:\binom{2d+1}{d},$ which generalizes the known results for the unit hypercube and lattice simplices provided by the author. This theorem is proven by establishing that the number of horizontal miniatures of $P$ with resolution $t$ is a polynomial of degree $d+1$ in $t$ whose leading coefficient is $\mathrm{vol}\,(P)/(d+1),$ which is derived from Ehrhart theory.
title Horizontal miniatures and normal-sized miniatures of convex lattice polytopes
topic Combinatorics
52B20 (Primary) 05A15, 11P21, 28A75 (Secondary)
url https://arxiv.org/abs/2605.20905