Fractal Metascience Paradigm as Dynamic Visualization: Process Ontology, Recursive Systems, and AI-Simulated Superposition

This paper formalizes the Fractal Metascience Paradigm (FMP) as a corrective to the limitations of static representations in scientific publishing, redefining image, visualization, and representation as processual, recursive, and dynamically observable phenomena. Within FMP, an image is not a picture but an unfolding system; visualization is not depiction but participation in dynamics. We demonstrate that what is conventionally fragmented into mathematics, physics, computer science, and philosophy constitutes a single recursive ontology describable through fractal structures and operational superposition. Furthermore, we show how artificial intelligence systems, when used reflexively, enable the experimental simulation of this superposition regime, providing a unified framework for integrating theory, method, and dynamic visualization.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-11
DOI
https://doi.org/10.5281/zenodo.20116240
Primary Topic
Chaos, Complexity, and Education
Type
preprint
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preprint

Fractal Metascience Paradigm as Dynamic Visualization: Process Ontology, Recursive Systems, and AI-Simulated Superposition

Abdurashid Abdukarimov
Zenodo (CERN European Organization for Nuclear Research)
Chaos, Complexity, and Education
preprint

Fractal Metascience Paradigm as Dynamic Visualization: Process Ontology, Recursive Systems, and AI-Simulated Superposition

Abdurashid Abdukarimov
preprint en

Abstract

This paper formalizes the Fractal Metascience Paradigm (FMP) as a corrective to the limitations of static representations in scientific publishing, redefining image, visualization, and representation as processual, recursive, and dynamically observable phenomena. Within FMP, an image is not a picture but an unfolding system; visualization is not depiction but participation in dynamics. We demonstrate that what is conventionally fragmented into mathematics, physics, computer science, and philosophy constitutes a single recursive ontology describable through fractal structures and operational superposition. Furthermore, we show how artificial intelligence systems, when used reflexively, enable the experimental simulation of this superposition regime, providing a unified framework for integrating theory, method, and dynamic visualization.

Zenodo (CERN European Organization for Nuclear Research)
Bioscience Research (US)
Quality Education
Chaos, Complexity, and Education
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