Relativistic Effects on Quantum Decoherence: Time Dilation, Length Contraction, and Velocity-Enhanced Decoherence in the Quantum-to-Classical Transition

This thesis presents a unified model for the quantum-to-classical transition by integrating relativistic effects—such as time dilation and length contraction—with Humberto Arrabal’s velocity-enhanced quantum decoherence model. While traditional decoherence theories focus on environmental interactions, this work expands the framework by demonstrating that particle velocity, particularly at relativistic speeds, significantly accelerates quantum decoherence. The model applies Einstein’s relativistic energy equation and Arrabal’s velocity-based criterion, showing that relativistic velocities cause an earlier onset of classical behavior. The implications for quantum computing, cosmology, and experimental designs are explored, including a proposal for empirical validation at CERN.本论文提出了一种统一的量子到经典跃迁（quantum-to-classical transition）模型，将时间膨胀（time dilation）、长度收缩（length contraction）等相对论效应与温贝托·阿拉瓦尔（Humberto Arrabal）提出的速度增强型量子退相干模型（velocity-enhanced quantum decoherence model）相结合。传统退相干理论多聚焦于环境相互作用，本研究拓展了该理论框架，证实粒子速度——尤其在相对论性速度下——可显著加速量子退相干过程。本模型融合爱因斯坦相对论能量方程与阿拉瓦尔基于速度的判据，表明相对论性速度会促使经典行为更早出现。此外，本研究探讨了该模型在量子计算、宇宙学及实验设计领域的研究启示与应用前景，并提出了一项可在欧洲核子研究中心（CERN）开展实证验证的方案。

搜集汇总

背景与挑战

背景概述

该数据集基于一篇2024年的物理学论文，提出了一种整合相对论效应（如时间膨胀和长度收缩）与速度增强量子退相干模型的统一框架，用于解释量子到经典的转变。模型表明，粒子在相对论速度下会加速退相干，导致经典行为更早出现，并探讨了在量子计算、宇宙学和实验设计（如CERN验证）中的应用潜力。