This work presents Receptor-Authenticated Oxidative Collapse (RAOC), a theoretical biomedical systems framework for conditional intracellular targeting. RAOC extends the Entropic Shell Delivery (V3) architecture by shifting the emphasis from generalized nutrient-based uptake toward receptor-authenticated biological targeting. The framework proposes a multi-stage logic model in which a therapeutic payload remains functionally dormant unless specific cellular authentication conditions are met, including receptor-state recognition, internalization, and intracellular redox-state compatibility. The paper frames viral entry mechanisms as evidence that biological addressing systems already exist within living tissue. RAOC theorizes that such addressing logic may be inverted toward therapeutic purposes by combining selective cellular authentication, localized intracellular activation, adaptive immune handoff, bystander-quenching resistance, and systemic inflammatory stabilization. This is a theoretical conceptual synthesis only. It does not present experimental validation, clinical evidence, medical advice, or a treatment protocol. The purpose of this publication is to place the RAOC framework into the public record as an open hypothesis architecture for future scientific review, critique, testing, or development.
Gabriel et al. (Fri,) studied this question.