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arXiv · 2206.14470

Total orderization invariant maps on distributive lattices

Christopher Michael Schwanke
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Abstract

Given any finite subset $A$ of order $n$ of a distributive lattice and $k\in\{1,...,n\}$, there is a natural extension of the median operation to $n$ variables which generalizes the notion of the $k$th smallest element of $A$. By applying each of these operations to $A$, a totally ordered set $to(A)$ is obtained. We refer to $to(A)$ as the total orderization of $A$. After developing a brief theory of total orderization invariant maps on distributive lattices, it is shown in this paper how these functions generalize and provide new characterizations for symmetric continuous positively homogeneous functions, bounded orthosymmetric multilinear maps, and certain power sum polynomials on vector lattices. These theorems generalize several results by Bernau, Huijsmans, Kusraev, Azouzi, Boulabiar, Buskes, Boyd, Ryan, and Snigireva and in turn reveal novel properties of the various maps studied in this paper.

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Christopher Michael Schwanke. 2022-06-30. Total orderization invariant maps on distributive lattices. https://arxiv.org/abs/2206.14470

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