Title: Dynamical Quantum Entanglement Stabilization – Beyond Standard Quantum Mechanics

Jincheng Zhang

Published Sep 4, 2026• 0 citations

Abstract

The pursuit of long-distance quantum communication and computation hinges on maintaining the delicate entanglement of quantum states. Conventional approaches often struggle with decoherence, a phenomenon where entanglement is disrupted by environmental interactions. This paper investigates a novel method for stabilizing entanglement across macroscopic distances utilizing a dynamically adjusted quantum field, leveraging a modified Boltzmann distribution for field modulation. We hypothesize that by continuously adapting the field's strength and phase, we can mitigate the effects of non-linear quantum dynamics, thereby significantly enhancing entanglement robustness. This work represents a departure from classical entanglement models, offering a potential pathway to exceeding the limitations of current techniques.

DOI: 10.5281/zenodo.22291709

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