"Quantum Entanglement Explained"

In Quantum Entanglement Explained, Clyde Jermaine Wilcox dismantles the conventional narrative of "spooky action at a distance" and redefines quantum entanglement as a magnetic information phenomenon governed by real-time field dynamics. Using a novel scalar—Magnetic Information Density (MID)—and the Wilcox Constant (κ) as a coherence threshold, this paper reframes wave function collapse as a formatting failure, not a metaphysical mystery. Entangled particles are shown to maintain coherence only when MID remains below a critical level, offering a field-theoretic explanation rooted in magnetic structure, not probability. The concept of magnoelectric cyclers is introduced to explain how particles maintain phase-locked information across space without invoking nonlocality. The framework challenges both Copenhagen and Many-Worlds interpretations, offering testable predictions for experiments near high-magnetic environments such as magnetars. This paper forms a foundational component of Wilcox’s broader electromagnetic reinterpretation of quantum theory. ---