Paper T11: Filaments from Strain, Defects, and Interference Emergent Network Dynamics in the Holosphere Lattice
Year: 2025
Type: article
Abstract: This paper investigates how filamentary structures emerge from coherence strain, defect dynamics, and angular interference in the Holosphere lattice. Filaments form not from gravitational collapse, but from feedback between migrating coherence defects and the strain pathways they reinforce. Building on the percolation threshold beta = 3/2 from Paper 24, we show that stable filament formation only occurs when angular phase inheritance matches this critical exponent. We model defect-driven strain evolution using conserved coherence currents and simulate 2D lattice dynamics adapted from Paper T15. The resulting coherence corridors correspond to angular waveguides where triadic SU(2) phase-locking is preserved. A coherence phase diagram is developed linking strain magnitude, curvature, and percolation behavior. Simulation results confirm that filamentary networks emerge only in the narrow band of this diagram where coherence is marginally stable. These structures correspond to the filament and void morphology described in Paper 63 and yield testable predictions about filament width scaling, junction geometry, and void edge gradients. This revised formulation elevates Holosphere filaments from simulation artifacts to predictive features of coherence-based spacetime structure.
Author: Sarnowski, Michael
Language: English
Subfield: Condensed Matter Physics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W6931090932
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