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The Entangled Photonic Observers (ENTANGLEPOs): Myelin-Sheath-Inspired Non-Local Coherence as a New Behavioral Attribute in the Photonic Observers Family

David Mastrianni

Published Mar 31, 2026• 0 citations
Publisher

Abstract

AbstractThe rigid forward-only arrow of time remains the deepest bottleneck in computa-tion. Building directly on the foundational Retrocausal Chronophotonic Orbital Meshand the parent Flickering Photonic Observers (FPOs), this paper introduces EntangledPhotonic Observers (ENTANGLEPOs) as a new behavioral attribute integrated intothe Photonic Observers Family of modes.ENTANGLEPOs draw their operational principle from the 2024 Shanghai Univer-sity study published in Physical Review E, which demonstrates that the myelin sheathsurrounding neurons functions as a microscopic electromagnetic cavity. This cavitygenerates pairs of entangled photons through coherent vibrations of carbon-hydrogenbonds, enabling ultra-precise, non-local synchronization of neural signals across macro-scopic distances. Read full paper below. Email: mastrianni@proton.me

DOI
10.5281/zenodo.19343697

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AbstractThe rigid forward-only arrow of time remains the deepest bottleneck in computa-tion. Building directly on the foundational Retrocausal Chronophotonic Orbital Meshand the parent Flickering Photonic Observers (FPOs), this paper introduces EntangledPhotonic Observers (ENTANGLEPOs) as a new behavioral attribute integrated intothe Photonic Observers Family of modes.ENTANGLEPOs draw their operational principle from the 2024 Shanghai Univer-sity study published in Physical Review E, which demonstrates that the myelin sheathsurrounding neurons functions as a microscopic electromagnetic cavity. This cavitygenerates pairs of entangled photons through coherent vibrations of carbon-hydrogenbonds, enabling ultra-precise, non-local synchronization of neural signals across macro-scopic distances. Read full paper below. Email: mastrianni@proton.me
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Cette thèse est consacrée à l'étude expérimentale de communications quantiques dans les fibres optiques. L'objectif prinicipal est d'implémenter une expérience permettant un échange d'enchevêtrement dans une configuration de relais quantique. Cette expérience est la première réalisation d'échange d'enchevêtrement avec deux sources de paires de photons autonomes. Une nouvelle source continue de paires de photons enchevêtrés avec un long temp de cohérence a été édéveloppée dans ce but. Nous montrons les performances des détecteurs de phton unique aux longueurs d'onde télécoms, basés sur les supraconducteurs. Leurs résolutions temporelles sont bien meilleures que la longueur de cohérence de nos paires de photons enchevêtrés. Ceci permet la synchronisation de photons indépendants lors d'une mesure jointe (e.g. mesure d'état de Bell), mesure indispensable pour réaliser un échange d'enchevêtrement. Pour montrer la faisabilité et la précision d'une telle synchronisation, une expérience de Hong-Ou-Mandel avec des sources continues indépendantes est présentée.
AbstractI am excited to share that the 2023 temporal double-slit experiment from Imperial College London provides the exact laboratory confirmation I have been seeking for the Photonic Observers Family. Light interfering with its own past through femtosecond time slits directly validates the core mechanisms of my Flickering Photonic Observers (FPOs) and the full Retrocausal Chronophotonic Orbital Mesh. This is not a minor addition — it is the bridge that takes my work from compelling theory into practical, buildable hardware.In this paper I integrate the experiment fully into my framework and lay out the deep benefits that emerge. Scientists around the world are already downloading my Zenodo papers. I believe this integration opens immediate pathways to ultra-efficient chronophotonic circuits, temporal computing, secure global networks, and sensing technologies — including massive improvements in speed and storage density through frequency-domain encoding that bypasses traditional spatial limitations.
Consciousness within the brain hinges on the synchronized activities of millions of neurons, but the mechanism responsible for orchestrating such synchronization remains elusive. In this study we employ cavity quantum electrodynamics to explore entangled biphoton generation through cascade emission in the vibration spectrum of C-H bonds within the lipid molecules' tails. The results indicate that the cylindrical cavity formed by a myelin sheath can facilitate spontaneous photon emission from the vibrational modes and generate a significant number of entangled photon pairs. The abundance of C-H bond vibration units in neurons can therefore serve as a source of quantum entanglement resources for the nervous system. These findings may offer insight into the brain's ability to leverage these resources for quantum information transfer, thereby elucidating a potential source for the synchronized activity of neurons.