Toroidal Topology and Encoded Memory: A Unified Hypothesis of Fundamental Genetic Architecture, Photon Rings, Siphoning, and Magnetic Resonance in Black Holes

This paper presents a theoretical framework proposing a unified geometric and informational structure for black holes. The hypothesis posits that black holes unify fundamental genetic architecture, photon rings, siphoning (accretion), magnetic resonance, and memory storage within four-dimensional spacetime. By integrating established equations, including the Bekenstein-Hawking entropy, Bondi accretion rates, gravitomagnetic dynamo theory, and toroidal quasi-normal mode (QNM) spectra, this work demonstrates the mathematical structure of a toroidal horizon (S1 S1) functions as a fundamental topological form of genetic architecture, operating at the Planck scale of spacetime. Furthermore, the geometry of the photon sphere and gravitational lensing parameters correspond to the optical boundary or “eye” of the black hole. This publication serves to establish priority for this hypothesis, providing a conceptual and mathematical foundation for future observational testing through gravitational wave ringdown data and Event Horizon Telescope polarization maps.