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Relative uniform convergence and Archimedean property in pre-ordered vector spaces

Eduard Emelyanov

TL;DR

The work addresses canonical Archimedeanization for a pre-ordered vector space $X$ without requiring lattice structure. It constructs the Archimedeanization by taking $W$ as the ru-closure of $X_+$ and defining $A$ as $W \cap (-W)$, then passing to the quotient to form $(X/A,[W])$. It proves that $[W]$ is an Archimedean cone in $X/A$ and that this quotient is the Archimedeanization of $X$ with a universal property, extending the Luxemburg–Moore–Veksler paradigm beyond lattices. The paper also provides a constructive, transfinite description of the ru-closure via $(X_+)^{(\alpha)}_{ru}$ and introduces invariants $\alpha(X)$ and $\lambda(X)$ to measure Archimedeanization depth, linking relative uniform convergence to Archimedean structure in general pre-ordered spaces.

Abstract

It is proved that, for a pre-ordered vector space $X$, the quotient space $(X/A,[W])$ is the Archimedeanization of $X$, where $W$ is the closure of the positive wedge $X_+$ in the ru-topology, $A=W\cap(-W)$, and $[W]$ is the quotient set of $W$ in $X/A$.

Relative uniform convergence and Archimedean property in pre-ordered vector spaces

TL;DR

The work addresses canonical Archimedeanization for a pre-ordered vector space without requiring lattice structure. It constructs the Archimedeanization by taking as the ru-closure of and defining as , then passing to the quotient to form . It proves that is an Archimedean cone in and that this quotient is the Archimedeanization of with a universal property, extending the Luxemburg–Moore–Veksler paradigm beyond lattices. The paper also provides a constructive, transfinite description of the ru-closure via and introduces invariants and to measure Archimedeanization depth, linking relative uniform convergence to Archimedean structure in general pre-ordered spaces.

Abstract

It is proved that, for a pre-ordered vector space , the quotient space is the Archimedeanization of , where is the closure of the positive wedge in the ru-topology, , and is the quotient set of in .
Paper Structure (3 sections, 9 theorems, 6 equations)

This paper contains 3 sections, 9 theorems, 6 equations.

Key Result

Lemma 3.1

Let $W$ be a wedge in a vector space $X$. Then $[W]$ is a cone in $X/A$, where $A=W\cap(-W)$. Moreover, $[W]$ is majorizing in $X/A$ whenever $W$ is majorizing in $X$.

Theorems & Definitions (18)

  • Lemma 3.1
  • proof
  • Definition 3.1
  • Lemma 3.2
  • proof
  • Lemma 3.3
  • proof
  • Proposition 3.1
  • Corollary 3.1
  • Theorem 3.2
  • ...and 8 more