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Modeling quantum entanglement proposes a mechanism involving hydrodynamic jets, suggesting new insights into correlations.
Quantum entanglement is traditionally interpreted as a non-local correlation between independent particles. This paper proposes a deterministic modeling of this phenomenon within the framework of Substratum Hydrodynamics (Papers I-XII). We hypothesize that an "entangled pair" may represent not two isolated entities, but the terminals of a single Cumulative Jet. Such a jet, formed during the collapse of a primary vortex, carves a stable, low-pressure cavitational channel within the Substratum. Mathematical analysis suggests that this structure maintains its integrity under the immense background pressure (10³² Pa), explaining quantum correlation as instantaneous pressure equalization within a unified physical channel. This model offers a potential resolution to the EPR paradox through topological connectivity.
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Vakhtang Mchedlishvili (2026) studied this question.
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