BRAHIM FIELD EQUATIONS
Brahim Field Equations defines a self-contained dynamical framework built from the golden ratio $\phi$ and a logarithmic "dimension function": $$D(x) = -\frac{\ln(x)}{\ln(\phi)}$$ From the identity $\phi^{D(x)} = 1/x$, the text defines an energy functional: $$E(x) = \phi^{D(x)} \cdot 2\pi x$$ It proves $E(x) = 2\pi$ for all positive $x$ by algebraic cancellation. The text derives a unique fixed point: $$x^* = \frac{W(\ln \phi)}{\ln \phi} \approx 0.710439$$ where $D(x^*) = x^*$, interpreted as an observer state. The Three-Equation System The framework presents a system governed by three core components: Evolution Rule: Drives $\Psi(t)$ toward $x^*$. Invariant Energy Constraint: Maintains the structural integrity of the field. "Wormhole" Boundary Condition: Resets $\Psi$ from below the Genesis threshold $G = 2/901 \approx 0.0022197558$ back to $\phi$, producing an eternal cycle. Validation and Topology A validation chapter reports 65 numerical tests and provides a minimal Python reference implementation. Later chapters map infinite dimensions into a bounded representation via the Poincaré disk: $$r(x) = \tanh\left(\frac{D(x)}{2}\right)$$ This section connects discrete state counting across dimensions 1–12 to Lucas numbers, totaling 840 states. Back-Cover Blurb This book constructs a mathematical system around the golden ratio and follows the consequences of that choice. It introduces a scoped notion of "dimension" and an energy functional engineered to be invariant, then uses those definitions to derive a dynamical flow with a computable fixed point and a boundary reset rule. The result is a closed cycle on a scale hierarchy that can be tested directly with the included Python calculator and the provided test suite summary. One-Line Description A golden-ratio-based dynamical framework where a logarithmic dimension map forces $E=2\pi$, defines a unique fixed point $x^* \approx 0.710439$, and closes the flow with a Genesis-threshold reset, supported by numerical tests and a minimal Python reference.
Authors
- Elias Oulad Brahim
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-01-26
- DOI
- https://doi.org/10.5281/zenodo.18395456
- Primary Topic
- Cognitive Computing and Networks
- Type
- article
- Field-Weighted Citation Impact
- 0.00