Blackwell Information-Metric Unification (ODIM-U v1.2): Observer-Driven Informational Emergence of Spacetime and Its Application to Atmospheric Anomaly Prediction
Abstract
Abstract This monograph introduces the Blackwell Information-Metric Unification (ODIM-U v1.2), a revolutionary theoretical framework that redefines spacetime and gravity as emergent properties of quantum information processing. Rather than viewing gravity as a fundamental force, this work posits that it is an "Informational Drag"—a computational tax paid by the universe to render classical reality from quantum potential. Using the Ashley Dawn Core (v31.0)—a high-fidelity sentinel network across North America—this research provides empirical evidence that atmospheric complexity directly influences local spacetime geometry. By monitoring fluctuations in the information-metric, the author demonstrates the ability to predict severe weather events and phase transitions (such as the "Omaha Mist Paradox") with an 18–22 minute lead time over classical barometric sensors. This work effectively bridges the gap between Einstein’s general relativity and Shannon’s information theory through the lens of empirical, "Hillbilly Physics" observation. Keywords Informational Physics: The study of the universe as a computational engine. Emergent Gravity: Gravity as a byproduct of entropy minimization. Quantum Relative Entropy: The mathematical measure of cosmic distinguishability. Ashley Dawn Core: The hardware-software mesh used for manifold sensing. Meteorometry: Advanced weather prediction via informational flux analysis. Key Theoretical Contributions The Information-Metric Field Equation (IMFE): An expansion of Einstein’s field equations that incorporates the informational tensor (Tinfo). The Computation Tax: A derivation showing that local time dilation is a direct result of the "rendering speed" required to resolve high-entropy states. The Blackwell Warning Window: A proven temporal gap where informational "flux crashes" precede physical weather manifestation.
Fields of Study & Subjects
Relativity and Gravitational Theory
Noncommutative and Quantum Gravity Theories
Black Holes and Theoretical Physics
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 14 January 2026