Geometry of Arithmetic Expressions: I. Basic Concepts and Unsolved Problems

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1. Verfasser: Yuan, Mingli
Format: Recurso digital
Sprache:Englisch
Veröffentlicht: Zenodo 2025
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author Yuan, Mingli
author_facet Yuan, Mingli
contents <p>This paper introduces a novel geometric framework for studying arithmetic expressions, establishing a <span>rigorous connection between algebraic operations and hyperbolic geometry. We formalize arithmetic </span>expressions as syntactic structures and demonstrate how they can be embedded into continuous geometric spaces where addition and multiplication correspond to movements along orthogonal directions. Central to our approach is a flow equation that governs how expression values propagate through this geometric space. We construct the first kind arithmetic expression space <span>E</span><span>1 </span>on the upper <span>half-plane with a hyperbolic metric, where the assignment function satisfies the flow equation and </span><span>serves as an eigenfunction of the Laplacian. This construction reveals that arithmetic torsion—the </span>non-commutativity of addition and multiplication—directly corresponds to geometric area, analogous <span>to how curvature measures deviation from flatness. The paper establishes arithmetic expressions as </span><span>geometric objects with intrinsic invariants, opening new avenues for exploring the interplay between </span><span>computation and geometry.</span></p>
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publishDate 2025
publisher Zenodo
record_format zenodo
spellingShingle Geometry of Arithmetic Expressions: I. Basic Concepts and Unsolved Problems
Yuan, Mingli
arithmetic expressions
hyperbolic geometry
<p>This paper introduces a novel geometric framework for studying arithmetic expressions, establishing a <span>rigorous connection between algebraic operations and hyperbolic geometry. We formalize arithmetic </span>expressions as syntactic structures and demonstrate how they can be embedded into continuous geometric spaces where addition and multiplication correspond to movements along orthogonal directions. Central to our approach is a flow equation that governs how expression values propagate through this geometric space. We construct the first kind arithmetic expression space <span>E</span><span>1 </span>on the upper <span>half-plane with a hyperbolic metric, where the assignment function satisfies the flow equation and </span><span>serves as an eigenfunction of the Laplacian. This construction reveals that arithmetic torsion—the </span>non-commutativity of addition and multiplication—directly corresponds to geometric area, analogous <span>to how curvature measures deviation from flatness. The paper establishes arithmetic expressions as </span><span>geometric objects with intrinsic invariants, opening new avenues for exploring the interplay between </span><span>computation and geometry.</span></p>
title Geometry of Arithmetic Expressions: I. Basic Concepts and Unsolved Problems
topic arithmetic expressions
hyperbolic geometry
url https://doi.org/10.5281/zenodo.16938961