From Pattern to Structure to Control: A Three-Layer Map Of Physiological Coherence, Lantern of Sulfur, v12, April 2026

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Authors: Beth Martell
Cited by: 4
References: 3

Abstract

This paper presents a three-layer framework for understanding physiological coordination as an integrated system rather than a collection of independent processes. Across many conditions, symptoms appear fragmented—spanning fluid regulation, electrolyte balance, breathing, digestion, and energy—yet often follow a consistent and repeatable pattern. This work organizes that pattern into a simple structure that distinguishes between the conditions that enable coordination, the way systems are physically linked, and how stability is maintained over time. The framework is organized into three layers: Constraint (Concept C): the environmental and physiological conditions that bound stable function Structure (Concept A): the organization of pressure, flow, and system relationships Execution (Concept B): the timing and sequencing required to maintain coordination These layers operate together. Disruption at any level can produce system-wide instability, while restoration requires alignment across all three. This paper is designed as an entry map to the broader Lantern of Sulfur framework, providing a clear orientation before engaging with more detailed theoretical, structural, and clinical work. It does not propose a disease-specific mechanism, but offers a practical way to interpret complex, multi-system patterns as a loss—and potential restoration—of coordinated function. For the complete Lantern of Sulfur framework, reading order, and updated convergence dynamics materials, see the Lantern of Sulfur Master Index (Concept DOI): https://doi.org/10.5281/zenodo.17915492

Fields of Study & Subjects

Physiological and biochemical adaptations Trauma Hemostasis Coagulopathy Resuscitation Spaceflight effects on biology

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
4 April 2026
Document type
Preprint