Quantum Resonant Consciousness: DNA-Guided Dendritic Interferometry in a Non-Local Field

This model posits that the brain functions as a "Fractal Resonance Engine," leveraging the intricate fractal architectures of microtubules, neuronal dendrites, and DNA to access and process information from a non-local quantum information field. Microtubules act as fractal quantum processors, sustaining transient coherence and filtering noise. Dendritic arborizations serve as spatial interferometers, generating context through wavelet superposition. DNA, through its non-coding regions and epigenetic modifications, functions as a dynamic fractal tuner, biasing the system towards survival-relevant information. Memories are not solely stored locally but are accessed as non-local waveform collapses from a holographic quantum field, with spatiotemporal context serving as intrinsic access keys. This framework offers a physically testable approach to the "hard problem" of consciousness, proposing that conscious experience is a continuous process of contextualizing perceived reality. The "observer" in this model is not a separate entity, but the full feedback loop itself, emerging from the interaction with and contextualization of of percieved reality where the resonant pattern forms. Testable predictions include the impact of microtubule fractal perturbations on concept cell specificity, the influence of epigenetic DNA modifications on dendritic interference patterns, and the potential for objective fractal analysis of Near-Death Experience (NDE) reports.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-06-20
DOI
https://doi.org/10.5281/zenodo.15716528
Primary Topic
Reproductive tract infections research
Type
article
Field-Weighted Citation Impact
0.00
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article

Quantum Resonant Consciousness: DNA-Guided Dendritic Interferometry in a Non-Local Field

Zenodo (CERN European Organization for Nuclear Research)
Reproductive tract infections research
article

Quantum Resonant Consciousness: DNA-Guided Dendritic Interferometry in a Non-Local Field

article en

Abstract

This model posits that the brain functions as a "Fractal Resonance Engine," leveraging the intricate fractal architectures of microtubules, neuronal dendrites, and DNA to access and process information from a non-local quantum information field. Microtubules act as fractal quantum processors, sustaining transient coherence and filtering noise. Dendritic arborizations serve as spatial interferometers, generating context through wavelet superposition. DNA, through its non-coding regions and epigenetic modifications, functions as a dynamic fractal tuner, biasing the system towards survival-relevant information. Memories are not solely stored locally but are accessed as non-local waveform collapses from a holographic quantum field, with spatiotemporal context serving as intrinsic access keys. This framework offers a physically testable approach to the "hard problem" of consciousness, proposing that conscious experience is a continuous process of contextualizing perceived reality. The "observer" in this model is not a separate entity, but the full feedback loop itself, emerging from the interaction with and contextualization of of percieved reality where the resonant pattern forms. Testable predictions include the impact of microtubule fractal perturbations on concept cell specificity, the influence of epigenetic DNA modifications on dendritic interference patterns, and the potential for objective fractal analysis of Near-Death Experience (NDE) reports.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 51%
Reproductive tract infections research
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