Paper T11: Filaments from Strain, Defects, and Interference Emergent Network Dynamics in the Holosphere Lattice

This paper investigates how filamentary structures emerge from the interactionof coherence strain, defect motion, and angular phase interference in the Holospherelattice. Whereas coherence gradients guide the motion of mass and light, the formationof persistent structural networks—such as filaments and junctions—requires feedbackbetween migrating defects and the angular strain fields they influence.We show that defects moving along coherence slopes locally reinforce those samegradients, creating self-stabilizing channels of enhanced phase alignment. Where in-terference patterns align triadically or destructively cancel, lattice-scale junctions andbifurcations emerge. This coherence–defect feedback loop explains the emergence offilamentary networks and coherent nodes, which form the microscopic foundation forcosmic structure explored at large scale in Paper 63.This work limits itself to the mesoscopic physics of network formation and phasefeedback within the Holosphere lattice. It lays the structural groundwork for un-derstanding matter condensation, memory channels, and coherence geometry beforecosmological dynamics are introduced.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-06-27
DOI
https://doi.org/10.5281/zenodo.15754649
Primary Topic
Chemical and Physical Properties of Materials
Type
article
Field-Weighted Citation Impact
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article

Paper T11: Filaments from Strain, Defects, and Interference Emergent Network Dynamics in the Holosphere Lattice

Zenodo (CERN European Organization for Nuclear Research)
Chemical and Physical Properties of Materials
article

Paper T11: Filaments from Strain, Defects, and Interference Emergent Network Dynamics in the Holosphere Lattice

article en

Abstract

This paper investigates how filamentary structures emerge from the interactionof coherence strain, defect motion, and angular phase interference in the Holospherelattice. Whereas coherence gradients guide the motion of mass and light, the formationof persistent structural networks—such as filaments and junctions—requires feedbackbetween migrating defects and the angular strain fields they influence.We show that defects moving along coherence slopes locally reinforce those samegradients, creating self-stabilizing channels of enhanced phase alignment. Where in-terference patterns align triadically or destructively cancel, lattice-scale junctions andbifurcations emerge. This coherence–defect feedback loop explains the emergence offilamentary networks and coherent nodes, which form the microscopic foundation forcosmic structure explored at large scale in Paper 63.This work limits itself to the mesoscopic physics of network formation and phasefeedback within the Holosphere lattice. It lays the structural groundwork for un-derstanding matter condensation, memory channels, and coherence geometry beforecosmological dynamics are introduced.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 64%
Chemical and Physical Properties of Materials
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