WHO CAN READ WHAT BIOLOGY ALREADY KNOWS? An Open Research Question on the Biological Recognition of a Source-Derived Acoustic Signal

Can biological information be read from a physical molecular matrix and recognized by a living system in an acoustic domain? Biological systems continuously receive, interpret, and transduce physical and chemical signals into precise physiological regulation. While molecular pharmacology relies strictly on physical ligand-receptor binding, this paper formulates a fundamental open research question at the frontier of bio-information and signal transduction. The investigation focuses on the transition between a physical biological matrix — the Molecular Synchronised Peptide Matrix (MSPM) — and its direct acoustic representation, the Neuro-Acoustic Synchronisation Protocol (NASP). NASP was not composed from arbitrary frequencies or designed to imitate a biological effect; it was obtained by reading the physical MSPM material. The Central Challenge for the Scientific Community: What is the biological system actually reading? Which measurable, source-derived spectral and temporal features carry biological information? Through which sensory, neural, or mechanotransductive pathways could such a signal be transduced into systemic regulation? We do not ask for belief; we formulate an open, testable proposition for researchers in biophysics, mechanobiology, neurophysiology, and bio-digital interfaces to explore whether biology can recognize source-derived signals across physical domains. Extended scientific documentation, structural data, and project updates: https://pmtstructure.com/

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-08-26
DOI
https://doi.org/10.5281/zenodo.22113037
Primary Topic
Fractal and DNA sequence analysis
Type
article
Field-Weighted Citation Impact
0.00
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article

WHO CAN READ WHAT BIOLOGY ALREADY KNOWS? An Open Research Question on the Biological Recognition of a Source-Derived Acoustic Signal

Volodymyr Naumenko
Zenodo (CERN European Organization for Nuclear Research)
Fractal and DNA sequence analysis
article

WHO CAN READ WHAT BIOLOGY ALREADY KNOWS? An Open Research Question on the Biological Recognition of a Source-Derived Acoustic Signal

Volodymyr Naumenko
article en

Abstract

Can biological information be read from a physical molecular matrix and recognized by a living system in an acoustic domain? Biological systems continuously receive, interpret, and transduce physical and chemical signals into precise physiological regulation. While molecular pharmacology relies strictly on physical ligand-receptor binding, this paper formulates a fundamental open research question at the frontier of bio-information and signal transduction. The investigation focuses on the transition between a physical biological matrix — the Molecular Synchronised Peptide Matrix (MSPM) — and its direct acoustic representation, the Neuro-Acoustic Synchronisation Protocol (NASP). NASP was not composed from arbitrary frequencies or designed to imitate a biological effect; it was obtained by reading the physical MSPM material. The Central Challenge for the Scientific Community: What is the biological system actually reading? Which measurable, source-derived spectral and temporal features carry biological information? Through which sensory, neural, or mechanotransductive pathways could such a signal be transduced into systemic regulation? We do not ask for belief; we formulate an open, testable proposition for researchers in biophysics, mechanobiology, neurophysiology, and bio-digital interfaces to explore whether biology can recognize source-derived signals across physical domains. Extended scientific documentation, structural data, and project updates: https://pmtstructure.com/

Zenodo (CERN European Organization for Nuclear Research)
Ukrainian Engineering Pedagogics Academy (UA)
Quality Education
Openalex Percentile: Top 17%
Fractal and DNA sequence analysis
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