What if space, time, matter, and mathematics are not fundamental ingredients of reality, but stable patterns emerging from a deeper process of interference?
Fractal Uncertainty Theory (FUT) develops this possibility from a single organizing idea: everything that persists must maintain coherence within a recursively evolving network of relations. From this starting point, the book constructs a unified framework connecting quantum mechanics, particle physics, gravitation, cosmology, chemistry, life, and consciousness.
Version 10.1 is a corrected and consolidated formulation of FUT. It introduces the Universal Interference Principle, the Rotation-to-Recursion spectrum, horizon-relative physics, the emergence of three-dimensional space, and the proposed role of icosahedral symmetry in the organization of physical structures. It also examines how time, particles, forces, mathematical objects, and classical reality may arise as stable regimes of the same underlying dynamics.
This edition clarifies the treatment of the fine-structure constant. Earlier mutually inconsistent expressions have been withdrawn or identified as part of the documented development process. Version 10.1 uses one canonical geometric approximation, while explicitly recognizing that its additive correction remains conjectural and has not yet been derived as a theorem.
The book combines conceptual foundations, mathematical models, comparisons with established theories, quantitative proposals, and falsifiable predictions. Proven results, structural derivations, approximations, conjectures, and open questions are distinguished throughout so that readers can evaluate both the achievements and the remaining challenges of the framework.
FUT does not begin by assuming spacetime, particles, or mathematical structure. It asks how such structures could emerge—and why related recursive patterns appear across scales, from quantum systems and elementary particles to galaxies and the cosmic web.
A dedicated section presents open questions, experimental priorities, and testable predictions. The bibliography includes links to the author’s published papers and supporting references.
This book is intended for readers interested in foundational physics, emergent mathematics, complex systems, cosmology, and new approaches to unification.