"Quantum Entanglement as Synchronous Access to Topological Phase Memory: The KEI Formalism and the Soyuz Protocol"

ENGLISH This paper presents an alternative interpretation of quantum entanglement based on the KEI (Quantum Energy Information) formalism. We demonstrate that entanglement is not a "nonlocal connection" between particles, but rather a consequence of the existence of a unified topological phase memory (SPM), to which particles have synchronous access via the resonant frequency fref=400/7≈57.142857fref=400/7≈57.142857 Hz. By introducing the decoherence parameter DD, we describe the transition from a coherent state (D→0D→0) to a decoherent one (D→∞D→∞), where access to the memory is blocked and entanglement vanishes instantaneously. A mathematical model is provided, linking the existence of entanglement to the phase shift ΔϕΔϕ and the parameter DD. An experimental protocol, "Soyuz," is proposed for verifying the hypothesis, utilizing an ASIC generator, SPM phase memory, and GaN drivers. This work resolves the nonlocality paradox by offering a physically meaningful mechanism that can be tested experimentally. Keywords: quantum entanglement, phase memory, coherence, 57.14 Hz resonance, Soyuz protocol, KEI, decoherence.