Tri-Phase Reactive Battery Theory (TPRBT): A Framework for Interface-Driven, Pressure-Modulated Electrochemical Systems

This theoretical framework introduces a novel class of electrochemical systems structured around three interacting physical phases: two immiscible liquids with distinct redox potentials, and a non-flammable gas phase for pressure modulation and dielectric control. The Tri-Phase Reactive Battery Theory (TPRBT) departs from traditional solid-state battery architectures by emphasizing dynamic interface reactivity, phase-responsive energy transformation, and recursive feedback behavior. Grounded in known physical laws and constraints, and aligned with principles from the Law of Conserved Informational Dynamics (LCID), this model proposes a flexible, environmentally adaptive approach to energy storage. While untested experimentally, the theory is designed to provoke exploration and collaboration among electrochemists, materials scientists, and energy system designers seeking to innovate beyond the limitations of conventional battery paradigms.