Fractal Measure Integral: An Axiomatic Framework

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Autores principales: ZHOU, changzheng, 周, 子清
Formato: Recurso digital
Publicado: Zenodo 2025
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author ZHOU, changzheng
周, 子清
author_facet ZHOU, changzheng
周, 子清
contents <p> This paper systematically constructs an axiomatic theory for fractal measure integration<br> by introducing recursive self-similarity axioms, modified normalization conditions, and<br> compatible measurable space structures. It resolves traditional ambiguities in symbolic<br> representation and convergence issues through rigorous constraints on homogeneous self<br>similar fractals. We prove the uniqueness of measures under open set conditions (OSC)<br> and establish integral convergence theorems. Notably, σ-compactness of support sets and<br> Lipschitz decay conditions for integrands ensure mathematical coherence. Comparative<br> analysis reveals fundamental differences between fractal and Lebesgue integrals, while<br> highlighting limitations in heterogeneous multifractal systems and infinitely recursive<br> fractals.</p>
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institution Zenodo
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publisher Zenodo
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spellingShingle Fractal Measure Integral: An Axiomatic Framework
ZHOU, changzheng
周, 子清
Fractal measure, Self-similarity, Hausdorff dimension, σ-finiteness, Re cursive integration, Nonhomogeneous fractals
<p> This paper systematically constructs an axiomatic theory for fractal measure integration<br> by introducing recursive self-similarity axioms, modified normalization conditions, and<br> compatible measurable space structures. It resolves traditional ambiguities in symbolic<br> representation and convergence issues through rigorous constraints on homogeneous self<br>similar fractals. We prove the uniqueness of measures under open set conditions (OSC)<br> and establish integral convergence theorems. Notably, σ-compactness of support sets and<br> Lipschitz decay conditions for integrands ensure mathematical coherence. Comparative<br> analysis reveals fundamental differences between fractal and Lebesgue integrals, while<br> highlighting limitations in heterogeneous multifractal systems and infinitely recursive<br> fractals.</p>
title Fractal Measure Integral: An Axiomatic Framework
topic Fractal measure, Self-similarity, Hausdorff dimension, σ-finiteness, Re cursive integration, Nonhomogeneous fractals
url https://doi.org/10.5281/zenodo.14954795