Magnetism as a Structural Routing Constraint in Physical Systems
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2026
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| _version_ | 1866901238224781312 |
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| author | Doumbouya, Lisa Michelle |
| author_facet | Doumbouya, Lisa Michelle |
| contents | <p>This paper presents a structure-first interpretation of magnetism as a constraint mechanism that organizes and preserves coherent routing in physical systems. Rather than acting as a primary driver of structure, magnetic fields are understood as constraint structures that regulate the pathways through which charged degrees of freedom are expressed.</p> <p>Magnetism is observed to persist across a wide range of physical regimes, including environments in which matter-based organization breaks down. This persistence indicates that magnetism functions as a robust routing constraint rather than a derivative effect of material structure.</p> <p>In magnetically constrained systems, energy and interaction are organized into coherent pathways, enabling stability and sustained dynamics under continuous energy flow. In contrast, weak or absent magnetic constraint leads to reduced routing coherence and increased dispersion.</p> <p>This framework situates magnetism within a structure-first hierarchy in which constraint determines admissible pathways and routing coherence governs system behaviour.</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_19142415 |
| institution | Zenodo |
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| publishDate | 2026 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | Magnetism as a Structural Routing Constraint in Physical Systems Doumbouya, Lisa Michelle magnetism magnetic fields plasma physics electromagnetic fields Lorentz force magnetized plasma astrophysical jets fusion confinement galactic magentic fields high-energy environments structural constraint coherent routing routing constraint degrees of freedom restriction energy pathways structure-first physics constraint dynamics <p>This paper presents a structure-first interpretation of magnetism as a constraint mechanism that organizes and preserves coherent routing in physical systems. Rather than acting as a primary driver of structure, magnetic fields are understood as constraint structures that regulate the pathways through which charged degrees of freedom are expressed.</p> <p>Magnetism is observed to persist across a wide range of physical regimes, including environments in which matter-based organization breaks down. This persistence indicates that magnetism functions as a robust routing constraint rather than a derivative effect of material structure.</p> <p>In magnetically constrained systems, energy and interaction are organized into coherent pathways, enabling stability and sustained dynamics under continuous energy flow. In contrast, weak or absent magnetic constraint leads to reduced routing coherence and increased dispersion.</p> <p>This framework situates magnetism within a structure-first hierarchy in which constraint determines admissible pathways and routing coherence governs system behaviour.</p> |
| title | Magnetism as a Structural Routing Constraint in Physical Systems |
| topic | magnetism magnetic fields plasma physics electromagnetic fields Lorentz force magnetized plasma astrophysical jets fusion confinement galactic magentic fields high-energy environments structural constraint coherent routing routing constraint degrees of freedom restriction energy pathways structure-first physics constraint dynamics |
| url | https://doi.org/10.5281/zenodo.19142415 |