Open Letter / Research Proposal: Verifying a Closed-Loop Bio-Cybernetic Model of High-Frequency Neural Control, Direct Bio-Electric Nutrition, and Inverse Piezoelectric Matrix Locking (Phenotype N=1)

This open letter and research proposal introduces an integrated, multidisciplinary bio-cybernetic framework designed to investigate an undocumented physiological phenomenon in a functioning, synchronized phenotype at a biological age of 63. Bypassing traditional descriptive boundaries, the document outlines a theoretical model of a 400–1000 Hz High-Frequency Neural Drive (HFND) operating as a master control layer within the olivocerebellar loop. The proposal details two critical downstream systemic consequences for experimental validation: A bio-energetic foundation predicated on field-induced mitochondrial energy coupling (direct proton-motive drive), establishing cellular anabolism and adaptive autophagy synergy under strict dietary nitrogen restriction. An inverse piezoelectric structural resonance lock occurring within the crystalline tropocollagen matrix under continuous statodynamic loading, causing transient changes in interfacial boundary water dynamics and local dielectric profiles. Formulated as an open invitation to the international scientific community, this framework establishes clear, falsifiable empiric criteria to transition from passive visco-elastic models to direct, real-time in vivo electrophysiological and biophysical measurements.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-17
DOI
https://doi.org/10.5281/zenodo.22816889
Primary Topic
Planarian Biology and Electrostimulation
Type
preprint
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Open Letter / Research Proposal: Verifying a Closed-Loop Bio-Cybernetic Model of High-Frequency Neural Control, Direct Bio-Electric Nutrition, and Inverse Piezoelectric Matrix Locking (Phenotype N=1)

Dmytro Taran
Zenodo (CERN European Organization for Nuclear Research)
Planarian Biology and Electrostimulation
preprint

Open Letter / Research Proposal: Verifying a Closed-Loop Bio-Cybernetic Model of High-Frequency Neural Control, Direct Bio-Electric Nutrition, and Inverse Piezoelectric Matrix Locking (Phenotype N=1)

Dmytro Taran
preprint en

Abstract

This open letter and research proposal introduces an integrated, multidisciplinary bio-cybernetic framework designed to investigate an undocumented physiological phenomenon in a functioning, synchronized phenotype at a biological age of 63. Bypassing traditional descriptive boundaries, the document outlines a theoretical model of a 400–1000 Hz High-Frequency Neural Drive (HFND) operating as a master control layer within the olivocerebellar loop. The proposal details two critical downstream systemic consequences for experimental validation: A bio-energetic foundation predicated on field-induced mitochondrial energy coupling (direct proton-motive drive), establishing cellular anabolism and adaptive autophagy synergy under strict dietary nitrogen restriction. An inverse piezoelectric structural resonance lock occurring within the crystalline tropocollagen matrix under continuous statodynamic loading, causing transient changes in interfacial boundary water dynamics and local dielectric profiles. Formulated as an open invitation to the international scientific community, this framework establishes clear, falsifiable empiric criteria to transition from passive visco-elastic models to direct, real-time in vivo electrophysiological and biophysical measurements.

Zenodo (CERN European Organization for Nuclear Research)
Planarian Biology and Electrostimulation
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Open Letter / Research Proposal: Verifying a Closed-Loop Bio-Cybernetic Model of High-Frequency Neural Control, Direct Bio-Electric Nutrition, and Inverse Piezoelectric Matrix Locking (Phenotype N=1) — Dmytro Taran · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS