Order Out Of Chaos
Year: 2026
Type: preprint
Abstract: This study formalizes a new paradigm in mathematical stochastic modeling, demonstrating that finite circular randomness is not an amorphous manifestation, but rather a self-organized dynamic system rigidly constrained by an invariant fractal topology in Time and Space. By abstracting lottery urns within the Expansion Regime (1≤k≤6) as finite circular topological spaces and evaluating them across four pilot-urn containers (N∈{18,49,90,1000}), the paper articulates a fundamental legislative triad deployed in a strict structural sequence. In the first stage, the model establishes the Scaling Law, proving that the raw size of the container acts merely as a linear volume multiplier, with the system’s metric steps governed solely by the action of an elastic operator m, which purifies the raw data and unlocks a direct resonance with the Fibonacci sequence. In the second stage, the Law of Fractal synchronicity demonstrates a pure algebraic isomorphism within the same urn between the current Space dimension and the Time dimension from the Poisson process; both axes utilize the exact same mathematical constants, thereby experimentally validating the 180° Circular Isotropy Property through the micro-oscillations observed within the real-world control cycles monitored by the author for the 6/49 system. In the final stage, the Law of Scale Invariance confirms the collapse of raw data into pure dimensionless fractal profiles via normalization with the first metric step, proving that these scale-invariant proportions are non-deformable and identical in Time and Space for any given class k, extending the universality of the model from the singularity of the Monad (1/1) up to macro-probabilistic dimensions. Ultimately, the study concludes that chaos merely a high-level mathematical organization. Under the seemingly chaotic bombardment of data, randomness is obliged to conform in Time and Space to a universal law that determines its evolution based on steps that form fractals to infinity.
Author: Stanica, Dan
Language: English
Subfield: Statistical and Nonlinear Physics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7225567876