Abstract

Abstract This paper introduces the Chirality of Dynamic Emergent Systems (CODES), an interdisciplinary framework for understanding the interplay between chaos and order in the emergence of structured resonance, which is defined as the process by which chaotic, asymmetric forces interact and self-organize into coherent patterns through dynamic feedback and synchronization mechanisms. We argue that structured resonance is a fundamental organizing principle that explains how seemingly disordered elements can align and form stable, emergent structures over time. Empirically, we present computational evidence through advanced simulations, including Bose-Einstein condensates and wavelet transforms, to illustrate coherence, symmetry breaking, and chirality-driven dynamics. The results demonstrate the robustness and adaptability of CODES across nonlinear, high-dimensional systems.