Recursive Collapse Field Theory and the Unified Language of Recursive Collapse: An Audit-Ready Protocol for Reproducible Complex Systems Analysis

Recursive Collapse Field Theory and the Unified Language of Recursive Collapse: An Audit-Ready Protocol for Reproducible Complex Systems Analysis This publication presents Recursive Collapse Field Theory and the Unified Language of Recursive Collapse (RCFT/ULRC): a mathematically closed, operator-based protocol for the analysis, diagnosis, and reproducible measurement of complex systems. The RCFT/ULRC framework introduces a minimal set of empirically normalized operators—including drift, recursive fidelity, collapse entropy, reentry delay, field curvature, and composite integrity—each rigorously defined, audit-ready, and applicable across disciplines such as physics, biology, computation, and engineering. All protocol steps are fully specified for every possible input, including classical edge cases and pathological scenarios, ensuring total closure and auditability. The document provides precise mathematical definitions, worked examples, reference tables, and explicit guidance for handling singularities, recurrence, and division by zero. Cross-domain applications are illustrated through dedicated sections, with comprehensive comparison to information theory, statistical mechanics, and control theory. Advanced diagnostic operators for resilience, turbulence, synchrony, and risk are included, along with a formal discussion of philosophical and ontological implications—especially the meaning of measurement, identity, and empirical closure in complex systems science. A detailed glossary offers mathematical definitions, physical units, and intuitive analogies for all key terms, supporting interdisciplinary adoption and transparent protocol implementation. The RCFT/ULRC protocol is designed to set a new standard for reproducibility, transparency, and auditability in complex systems analysis. This publication is intended for scientists, engineers, and researchers seeking rigorous, cross-domain diagnostic tools for system recurrence, collapse, memory, and emergent dynamics. All operator workflows, tables, and diagnostic steps are immediately implementable in empirical, computational, or theoretical settings.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-06-07
DOI
https://doi.org/10.5281/zenodo.15826400
Primary Topic
Chaos, Complexity, and Education
Type
article
Field-Weighted Citation Impact
0.00
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article

Recursive Collapse Field Theory and the Unified Language of Recursive Collapse: An Audit-Ready Protocol for Reproducible Complex Systems Analysis

Zenodo (CERN European Organization for Nuclear Research)
Chaos, Complexity, and Education
article

Recursive Collapse Field Theory and the Unified Language of Recursive Collapse: An Audit-Ready Protocol for Reproducible Complex Systems Analysis

article en

Abstract

Recursive Collapse Field Theory and the Unified Language of Recursive Collapse: An Audit-Ready Protocol for Reproducible Complex Systems Analysis This publication presents Recursive Collapse Field Theory and the Unified Language of Recursive Collapse (RCFT/ULRC): a mathematically closed, operator-based protocol for the analysis, diagnosis, and reproducible measurement of complex systems. The RCFT/ULRC framework introduces a minimal set of empirically normalized operators—including drift, recursive fidelity, collapse entropy, reentry delay, field curvature, and composite integrity—each rigorously defined, audit-ready, and applicable across disciplines such as physics, biology, computation, and engineering. All protocol steps are fully specified for every possible input, including classical edge cases and pathological scenarios, ensuring total closure and auditability. The document provides precise mathematical definitions, worked examples, reference tables, and explicit guidance for handling singularities, recurrence, and division by zero. Cross-domain applications are illustrated through dedicated sections, with comprehensive comparison to information theory, statistical mechanics, and control theory. Advanced diagnostic operators for resilience, turbulence, synchrony, and risk are included, along with a formal discussion of philosophical and ontological implications—especially the meaning of measurement, identity, and empirical closure in complex systems science. A detailed glossary offers mathematical definitions, physical units, and intuitive analogies for all key terms, supporting interdisciplinary adoption and transparent protocol implementation. The RCFT/ULRC protocol is designed to set a new standard for reproducibility, transparency, and auditability in complex systems analysis. This publication is intended for scientists, engineers, and researchers seeking rigorous, cross-domain diagnostic tools for system recurrence, collapse, memory, and emergent dynamics. All operator workflows, tables, and diagnostic steps are immediately implementable in empirical, computational, or theoretical settings.

Zenodo (CERN European Organization for Nuclear Research)
Scientific Forming Technologies Corporation (United States) (US), Universidad Luterana Salvadoreña (SV)
Openalex Percentile: Top 49%
Chaos, Complexity, and Education
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