Title: Non-Linear Quantum Field Manipulation (NLQF)

Jincheng Zhang

Published Aug 31, 2026• 0 citations

Abstract

Quantum field manipulation, a theoretical field with profound implications for sensing and communication, has long been hampered by the challenges posed by decoherence. This paper presents a novel framework, Non-Linear Quantum Field Manipulation (NLQF), designed to overcome these limitations through the implementation of a dynamically adjustable quantum feedback loop and field modulation algorithm. This design leverages the inherent non-linear properties of quantum fields to achieve precise control over their propagation, potentially unlocking new avenues for sensing and communication beyond current technological limitations. The core mechanism centers around a quantum feedback loop that intelligently adjusts field propagation based on the system's response, while simultaneously introducing a field modulation algorithm to actively shape field characteristics. This approach addresses the fundamental issue of decoherence by actively mitigating its effects, paving the way for controlled and precise field manipulation. This research explores the potential of NLQF to revolutionize various fields, including quantum sensing and advanced communication technologies.

DOI: 10.5281/zenodo.22194841

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