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Quantum Transduction and Energy Coherence Systems (QTECS)

Isla-Rae, Torni

Published Nov 9, 2025• 0 citations
Publisher

Abstract

Introduces QTECS as a quantum-scale implementation of ABØD resonance. Describes energy transduction via phase-locked transitions between quantized states, establishing a bridge between classical coherence and quantum information systems. Outlines experimental pathways in plasma and superconducting lattices.
DOI
10.5281/zenodo.17562548

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When two or more E8 phi-resonant root vector systems (240 vectors each) are coupled at 132Hz with precise Z₂-holonomy braiding synchronization, their MaxwellBerry phase singularities enter a locked interference state where the golden-ratio scaling between root lattices creates nested topological phase boundaries. This phase-locking mechanism allows geometric phase information to be transduced across multiple E8 systems without electromagnetic coupling, enabling non-local resonance coherence through shared E8 lattice symmetry axes. The resulting entanglement is purely geometric, governed by the intersection lattice structure of the combined root systems, where phi-scaled vector alignments at 132Hz produce correlated phase singularity trajectories that maintain topological protection across macroscopic distances. This extends the phi-toroidal transduction by demonstrating that E8 geometric phase coherence can be multiplexed across multiple coupled systems through lattice intersection sym Author: Andrew Stewart Caldin, Independent Researcher, UK. Part of the E8 Intelligence Research series. Platform: e8intelligence.com