Title: Quantum Resonance Field Propagation with Adaptive Amplitude

Jincheng Zhang

Published Aug 31, 2026• 0 citations

Abstract

Quantum Resonance Field Propagation with Adaptive Amplitude is a novel approach to modeling and predicting the propagation of quantum resonance fields across vast distances. Traditional models often assume fixed distances, while this research introduces a dynamic, evolving environment incorporating quantum entanglement to accurately represent field propagation. The core mechanism centers around a "Resonance Field Propagation Model," a continuous update of the field's strength and direction dictated by local environmental conditions. This dynamic adjustment leverages quantum entanglement to guarantee the propagation of the field, overcoming limitations of static models. This work presents a framework for significantly improving the precision and predictability of field propagation, offering a potential breakthrough in applications ranging from quantum communication to advanced sensing.

DOI: 10.5281/zenodo.22203802

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