Water Memory as Dynamic Regime Memory: An OUXSPACE Relay Model Through Short-Lived Hydration, Protonic, and Interfacial States

The question of “water memory” is often framed statically: how could one water molecule, one cluster, or one local configuration preserve a structure for a long time when liquid water reorganizes extremely rapidly? In this form, the question imposes a justified limitation on every proposal of a long-lived molecular archive. 1–3 This publication proposes the OUXSPACE Water Relay Principle: a preparation-history-dependent water–interface regime could persist not through the permanence of one molecule, cluster, or local configuration, but through sequential relay across short-lived yet compatible hydrogen-bonded, hydration, protonic, ionic, and interfacial states. The central theoretical move is the distinction between a local carrier and a system-level regime: qᵢ (t) ≠ R (t) where qᵢ (t) is a short-lived local state and R (t) is the system-level regime. This is an OUXSPACE modelling distinction between a transient local carrier and system-level organization. It follows that a local configuration may decay without the regime necessarily being lost, provided that the regime direction is transferred to a subsequent compatible state before the local carrier disappears. The minimal temporal condition for such transfer is: τᵣelay < τₗocal where τᵣelay is the time required to relay the regime direction, and τₗocal is the interval during which the local state remains sufficiently recognizable to participate in the relay. The inequality specifies the temporal ordering required by the model: transfer must occur within the recognizability interval of the local state. A separate qualitative requirement is that the system remain dynamically reconfigurable. This adaptability requirement is conceptually distinct from the temporal relay condition. The rigidity boundary marks loss of reconfigurability and is not treated as a universal calibrated timescale. Within this framework, the water regime is defined by the joint organization of the hydrogen-bond network, proton defects, ion-hydration shells, interfacial layers, local fields, surfaces, the gas boundary, mechanical history, and boundary conditions. 4–13 Throughout the present work, “water regime” refers to the coupled water–interface system rather than to isolated bulk water alone. The relevant system may include the liquid phase, container surface, gas boundary, dissolved ions, particles, microbubbles, local fields, and preparation history. The external scientific literature supports the component processes considered in the model: hydrogen-bond rearrangement, proton transfer, hydration dynamics, ionic effects, interfacial structuring, surface influence, and microbubble behaviour. The proposed integration of these processes into preparation-history-dependent relay persistence is the specific OUXSPACE contribution of the present work. Preparation-history dependence should not be inferred from slow relaxation alone. Ordinary physicochemical history may arise from temperature, gas content, particles, vessel effects, ionic composition, mechanical energy, contamination, or delayed equilibration. A preparation-specific regime would require two standardized preparation histories to remain distinguishable after these known physicochemical variables have been matched, controlled, or explicitly modelled. In this framework, relay does not denote the transfer of one predefined scalar quantity. It denotes the possible persistence of a preparation-conditioned transition structure across changing local hydration, protonic, ionic, orientational, and interfacial states. The scope of the model is the physicochemical upstream layer: preparation-state understood as a dynamic regime history. Biological readability is treated as a subsequent layer that depends on a compatible receiver-state. 17–21 A physicochemical signature does not by itself establish biological action or clinical efficacy. Any claim of biological readability requires a separate blinded and independently controlled experimental design. The principal contribution is the formulation of a testable theoretical mechanism and an operational experimental roadmap. The framework does not demonstrate that a preparation-specific regime exists; it specifies the dynamical, interfacial, temporal, and control conditions under which such a claim could be evaluated.