Homologous Perturbation Phase Synchronization: Ontological Explanation of Nonlocality in Quantum Mechanics Based on the Primordial Static Space Paradigm

AbstractBased on the primordial static substrate paradigm, this paper proposes a homologous perturbation phase synchronization mechanism to provide a novel ontological account for the nonlocal correlation observed in quantum entanglement.We first analyze the inherent defects of mainstream quantum interpretations including the Copenhagen interpretation, many-worlds interpretation and Bohmian mechanics. Built upon the unified axiomatic system of primordial static substrate and local perturbation dynamics, the model achieves full compatibility with all existing Bell-type experimental observations, without postulating superluminal signal transmission.Within this framework, entanglement originates from synchronized phases inherited at the splitting of homologous perturbations. Nonlocal correlation is an intrinsic shared property of the unified source system rather than real-time information exchange between separated particles. The scheme naturally satisfies Lorentz invariance and avoids the conceptual contradictions plaguing nonlocal hidden-variable theories.We further elaborate the decoherence mechanism under this paradigm and draw clear distinctions with existing theoretical frameworks. This work only delivers qualitative ontological reasoning, and we outline subsequent research directions for quantitative derivation and discriminative experimental design.This manuscript is a branch of the author’s serial research on the system of primordial static substrate and local perturbation universe. It unifies microscopic quantum correlation and macroscopic gravitational convergence as distinct scale manifestations of the substrate’s inherent homing self-recovery tendency. This preprint is released under the Creative Commons Attribution 4.0 International License.