Chrono-Regulatory and Biochronal Therapeutics: A Framework for Temporal Regulation in Human Physiology

This research project investigates a novel biomedical framework focused on the regulation and synchronization of temporal dynamics within biological systems. The core hypothesis proposes that physiological health and pathological states may be influenced by localized deviations in the effective rate of physical and biochemical processes, interpretable as variations in the flow of time at the cellular and tissue levels. Unlike classical chronobiology, which primarily examines circadian and ultradian rhythms as regulatory cycles, this study explores time as a physical and thermodynamic parameter linked to entropy, metabolic intensity, and energy exchange. The project examines whether biological carriers—such as cells, blood plasma, or engineered agents—can undergo controlled temporal modulation through exposure to structured hyperbolic fields, resulting in measurable alterations in biochemical reaction rates and system-level behavior. The research draws conceptually from historical theoretical work proposing anisotropy and non-uniformity of time under energetic and entropic conditions, while maintaining a cautious and exploratory stance regarding empirical validation. The objective is not to assert established mechanisms, but to construct a testable framework for describing temporal desynchronization and resynchronization phenomena in living systems. This preregistered study aims to define operational models, measurement strategies, and experimental boundaries for investigating biochronal regulation and chrono-regulatory therapeutics. Expected outcomes include the identification of reproducible temporal effects in biological carriers, characterization of synchronization dynamics post-deployment, and formulation of hypotheses suitable for subsequent controlled experimental and clinical research.