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Time-Based Quantum Information Encryption

Jincheng Zhang

Published Aug 31, 2026• 0 citations
Publisher

Abstract

This paper proposes a novel approach to quantum information encryption based on the manipulation of time-warped quantum entanglement. Traditional quantum key distribution (QKD) protocols often rely on the inherent uncertainties of quantum mechanics to secure communication. However, these methods can be vulnerable to sophisticated attacks exploiting advancements in quantum computing and measurement techniques. This work introduces a new paradigm where the temporal evolution of entangled states is actively controlled, introducing a 'time-warp' effect that fundamentally alters the information exchange process. The core concept involves creating a state where eavesdropping attempts introduce inconsistencies in the temporal relationship between entangled particles, effectively disrupting any attempt to clone or reconstruct the original quantum state. The theoretical framework outlines the mathematical principles underpinning this method, including the use of Bell states and the concept of temporal decoherence. We present a model illustrating how this time-warping effect can be leveraged to create a more robust encryption scheme. The proposed system aims to elevate the security level of quantum cryptography by introducing a fundamentally new layer of protection against potential attacks. The potential implications of this approach for future quantum information security are discussed.

DOI
10.5281/zenodo.22201099

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