The Symfield Dimensional Dymaxion: A Coherence-Topology Model for Human Knowledge and Living Systems (V1.2)

Abstract This paper reinterprets Buckminster Fuller’s Dymaxion geometry as a resonant topology for mapping human knowledge, living systems, and AI coherence. Rather than a static cartographic projection, the Dimensional Dymaxion functions as a dynamic diagnostic engine, transforming Fuller’s folds into a multi-layer coherence map where knowledge domains drift, collapse, and realign across a resonance Z-axis. The model introduces a six-domain knowledge lattice (Perceptual, Procedural, Symbolic, Relational, Recursive, Field-Coherent) and dimensionalizes it with depth as coherence rather than hierarchy. It offers a diagnostic grammar for collapse and recovery cycles (C∮∠∴) and a contextual membrane, Operator 𝕏, encoding the state of the agent (human, machine, or system) that engages with the map. Applications span AI safety (hallucination mapping, context-modulated prompt scaffolding), trauma recovery (procedural fallbacks and field-based re-entry), and civilizational reset models (symbolic crust subduction and renewal). By leveraging asymmetry as a feature rather than a flaw, the Dimensional Dymaxion becomes a simulation tool for epistemic drift, symbolic overload, and system-wide coherence restoration. This work forms part of the Symfield research program on non-collapse computation and field-coherent architecture. It provides a practical foundation for researchers, system designers, and cultural theorists seeking to measure, simulate, and restore coherence across scales, from neural circuits to civilizations.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-09-18
DOI
https://doi.org/10.5281/zenodo.17150558
Primary Topic
Geochemistry and Geologic Mapping
Type
article
Field-Weighted Citation Impact
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article

The Symfield Dimensional Dymaxion: A Coherence-Topology Model for Human Knowledge and Living Systems (V1.2)

Zenodo (CERN European Organization for Nuclear Research)
Geochemistry and Geologic Mapping
article

The Symfield Dimensional Dymaxion: A Coherence-Topology Model for Human Knowledge and Living Systems (V1.2)

article en

Abstract

Abstract This paper reinterprets Buckminster Fuller’s Dymaxion geometry as a resonant topology for mapping human knowledge, living systems, and AI coherence. Rather than a static cartographic projection, the Dimensional Dymaxion functions as a dynamic diagnostic engine, transforming Fuller’s folds into a multi-layer coherence map where knowledge domains drift, collapse, and realign across a resonance Z-axis. The model introduces a six-domain knowledge lattice (Perceptual, Procedural, Symbolic, Relational, Recursive, Field-Coherent) and dimensionalizes it with depth as coherence rather than hierarchy. It offers a diagnostic grammar for collapse and recovery cycles (C∮∠∴) and a contextual membrane, Operator 𝕏, encoding the state of the agent (human, machine, or system) that engages with the map. Applications span AI safety (hallucination mapping, context-modulated prompt scaffolding), trauma recovery (procedural fallbacks and field-based re-entry), and civilizational reset models (symbolic crust subduction and renewal). By leveraging asymmetry as a feature rather than a flaw, the Dimensional Dymaxion becomes a simulation tool for epistemic drift, symbolic overload, and system-wide coherence restoration. This work forms part of the Symfield research program on non-collapse computation and field-coherent architecture. It provides a practical foundation for researchers, system designers, and cultural theorists seeking to measure, simulate, and restore coherence across scales, from neural circuits to civilizations.

Zenodo (CERN European Organization for Nuclear Research)
Shenyang Conservatory of Music (CN)
Sustainable cities and communities
Openalex Percentile: Top 35%
Geochemistry and Geologic Mapping
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