A Unified Field Theory of Human Bioelectricity Science (HBS): A Topological Framework for the Genesis, Structured Propagation, and Information-Theoretic Encoding of Endogenous Bioelectric Signals

This manuscript introduces Human Bioelectricity Science (HBS) as a new foundational discipline, proposing a unified field theory to reframe endogenous bioelectricity from a passive byproduct of ion transport to a primary causal agent in biology. The central thesis presents the Regulated Bioelectric Field (RBEF) model, which posits that the body's electric fields form a structured, information-bearing, and metabolically sustained substrate that actively guides morphogenesis, neural computation, and systemic homeostasis. The RBEF's stability and function are attributed to a tripartite architecture: (1) ATP-driven ionic engines as field generators, (2) dielectric scaffolds like lipid membranes and myelin as topological insulators, and (3) topological conduits such as gap junctions that ensure protected field propagation. The theory is grounded in a novel mathematical formulation, the Shibah-GHK-Poisson equation, which extends classical electrophysiology to include principles from non-equilibrium thermodynamics, electrostatic field effects, and a quantum correction term for ionic delocalization energy. Furthermore, the work establishes a bioinformation-theoretic framework, defining the information capacity of bioelectric signals under metabolic constraints and proposing that the RBEF serves as the physical substrate for integrated information (Φ), linking the body's electrical architecture to consciousness. By conceptualizing bioelectricity as a programmable, spacetime-like regulatory system, this theory provides a predictive foundation for transformative applications in regenerative medicine, neuromorphic computing, and consciousness studies.