Synchronization, Symmetry, and Measurement: A Structural Framework for Quantum Behavior in Rachel Theory (RT)

Quantum phenomena such as coherence, interference, and measurement outcomes are well described mathematically, yet their underlying physical interpretation remains open to discussion. This work presents a conceptual framework within the Dual Network Theory, the Law of Compromise, and the Law of Periodicity (Rachel Theory – RT), proposing that such phenomena may emerge from synchronization dynamics between a dynamic energy network and an underlying structured substrate referred to as the Fixed Network. Within this framework, coherence is interpreted as a high degree of synchronization between these two networks, while measurement is associated with a localized structural disturbance that breaks spatial symmetry and constrains the system into a single compatible configuration. Unlike standard interpretations that treat collapse as an abstract event, RT suggests that the transition to particle-like behavior reflects a structural preference emerging from local conditions within the Fixed Network. This approach does not aim to replace quantum mechanics, but rather to provide a possible structural interpretation that connects coherence, interference, and measurement through a unified dynamical mechanism. A detailed experimental study addressing these predictions is planned for publication in the near future.