The Thermo-field Dynamics Method for Electron with Two-mode Electromagnetic Field

A. Abidi
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Abstract

: The quick progress in quantum entanglement research allows us not one to study quantum systems down to N-bodies but also to take a new look at these systems in different branches of physics; particularly the statistical thermodynamics where the application of the thermo-field dynamics ( TFD ) method to the investigation of entanglement is fruitful. Because the traditional methods based on the identification of a specific parameter show their limit. The process using ( TFD ) facilitates the understanding of entanglement because it focuses directly on the eigenstate of the system and it is useful in the equilibrium and the non-equilibrium states also. In this context, the ( TFD ) method is used in this paper to analyze entanglement of an electron interacting with a two-mode electromagnetic field assimilated to an electron with two harmonic oscillators. Entanglement entropies are derived between concerned, not concerned harmonic oscillator and electron compute when the system is in a thermodynamic equilibrium and non-equilibrium state. For the equilibrium case, an increase in the number of particles per unit volume increases the quantum entanglement consequently entanglement appears more important for the couple oscillator-electron than the one electron, this trend is reversed for the non-equilibrium case. By respecting the entanglement parameters, such results allow us to know the relative equilibrium state of the overall system.
双模电磁场下电子的热场动力学方法
量子纠缠研究的快速发展使我们不仅可以研究n体的量子系统,而且可以在不同的物理分支中对这些系统进行新的审视;特别是统计热力学,其中应用热场动力学(TFD)方法来研究纠缠是富有成效的。由于传统的基于特定参数的识别方法显示出其局限性。使用TFD的过程有助于理解纠缠,因为它直接关注系统的特征态,并且在平衡和非平衡状态下也很有用。在这种情况下,本文使用(TFD)方法分析了电子与双模电磁场相互作用时的纠缠,该电磁场被同化为具有两个谐振子的电子。在系统处于热力学平衡和非平衡状态时,推导出了相关谐振子和非相关谐振子与电子计算之间的纠缠熵。在平衡情况下,每单位体积粒子数量的增加增加了量子纠缠,因此纠缠对一对振荡电子比一个电子更重要,这种趋势在非平衡情况下是相反的。通过尊重纠缠参数,这样的结果使我们能够知道整个系统的相对平衡状态。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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