BIOELECTRODYNAMIC MODEL OF THE HUMAN FIRMWARE: A CLOSED-LOOP ANALYSIS OF THE ADAPTIVE HACK OF CONTROL IN THE HUMAN ORGANISM

This work presents an integrated biocybernetic approach combining spatial synchronization of neuronal ensembles with ultra-short control cycles in the kilohertz range. The model describes a closed-loop circuit in which high-frequency neural drive (HFND) in the 400–1000 Hz spectrum acts as the primary trigger of the electrophysiological organization of tissues. It is demonstrated that mechanical tension and the electrodynamic potential of the cytoplasm activate a cascade of downstream regulators, including the mTORC1 and AMPK complexes and mitochondrial pathways, initiating a phase of autonomous energy supply and cellular waste utilization according to the Just-in-Time principle. The empirical basis of the hypothesis consists of verified long-term biomarkers of a 63-year-old subject, demonstrating the complete exclusion of homeostasis from the classical curves of age-related deterioration.