Publication Details
Issue: Vol 7, No 4 (2026)
Pages: 37-43
ISSN: 2660-4159

Abstract

The study examines the mathematical properties and mechanisms that give rise to patterns at the intersection of traditional geometry and random theory. It discusses how ordered geometric systems characterised by stability transform into chaotic and complex patterns under the influence of non-linear dynamical equations, as well as relying on computer modelling and the analysis of mechanisms and data trajectories. The results showed that even minor changes in the initial conditions can radically reshape these geometric structures, potentially resulting in fractal patterns characterised by infinite self-similarity, This analysis demonstrates that the apparent chaos in chaotic systems follows an internal geometric order of infinite precision governed by attractive forces. The results contribute to supporting the theoretical understanding of complex dynamical systems across various fields of theoretical computer science, whilst also opening up new horizons for the application of these geometric patterns in practical fields such as cryptography, computer simulation, and the analysis of complex physical and environmental systems

Keywords
fractal patterns characterized Chaos Theory cryptography Sierpinski