Scientific README
Project overview intended for academic and translational research audiences.
Overview
Redox Flavin is a conceptual research framework proposing adaptive redox regulation as a strategy to restore neuronal homeostasis in neurodegenerative disease.
Scientific Rationale
- Mitochondrial dysfunction and impaired electron transport are frequently observed in Alzheimer’s disease.
- Chronic redox drift can disrupt both energy production and redox signaling fidelity.
- Static supplementation may not restore dynamic redox governance.
Core Hypothesis
Neurodegenerative redox imbalance arises, in part, from loss of intrinsic redox self-regulation. A flavin-based regulatory system may restore homeostasis by dynamically sensing and correcting redox deviations.
Conceptual Architecture (RFR)
The proposed Redoxoflavin Regulatory Protein (RFR) is a modular construct integrating:
- Sensor layer: flavin-dependent redox sensing (FMN/FAD binding).
- Control layer: hysteresis + integrative feedback (set-point restoration, reduced chatter).
- Effector layer: activation of endogenous adaptive programs (e.g., Nrf2/ARE, PGC-1α, PINK1/Parkin).
Experimental Strategy
A staged validation roadmap is proposed (MVP-0 → MVP-4), enabling incremental verification or falsification.
Status
- Conceptual framework defined.
- White paper and roadmap available.
- No clinical claims; no commercial product offering.