New Approach to the Formation of a Bose–Einstein Condensate

IF 1.1 4区 物理与天体物理 Q4 PHYSICS, ATOMIC, MOLECULAR & CHEMICAL Applied Magnetic Resonance Pub Date : 2024-11-08 DOI:10.1007/s00723-024-01723-2
K. M. Salikhov
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Abstract

The observation of the exchange narrowing effect is a routine event in EPR spectroscopy. In this paper, I want to draw attention to the fact that every time we observe an exchange narrowing of the EPR spectrum, we have a gas of identical bosons, where the prerequisites of BEC formation are satisfied at room temperature. Imagine the possibility to create BEC without the need to cooling down to nano Kelvin temperatures to get a gas of identical bosons because the phenomenon of exchange narrowing of the EPR spectrum can be easily observed at room temperatures. This article provides a detailed explanation of how a gas of identical bosons can be formed at room temperature in dilute solutions of paramagnetic particles with a discrete EPR spectrum of individual particles. There are still many questions about the Bose–Einstein condensation of a spin polariton gas, which is created under conditions of exchange narrowing of EPR spectra. With the expectation of obtaining additional information about the condensation of bosons in the situation under consideration, this article proposes the protocol of one EPR experiment to prove that the effect of exchange narrowing of EPR spectra can be instrumental in creating BEC in dilute solutions at room temperature.

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玻色-爱因斯坦凝聚形成的新方法
交换变窄效应的观察是EPR光谱中的常规事件。在本文中,我想提请注意这样一个事实,即每次我们观察到EPR谱的交换变窄时,我们都有一个相同玻色子的气体,在室温下满足BEC形成的先决条件。想象一下创造BEC的可能性,而不需要冷却到纳米开尔文温度来获得相同玻色子的气体,因为在室温下可以很容易地观察到EPR光谱的交换变窄现象。本文提供了一个详细的解释,如何在室温下形成一个气体的相同玻色子可以在顺磁粒子的稀释溶液具有离散的EPR谱的单个粒子。自旋极化子气体的玻色-爱因斯坦凝聚现象,是在交换缩窄EPR谱的条件下产生的,目前仍存在许多问题。为了获得玻色子在这种情况下的凝聚的额外信息,本文提出了一个EPR实验的方案,以证明EPR光谱的交换变窄效应可以帮助在室温下稀溶液中产生BEC。
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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来源期刊
Applied Magnetic Resonance
Applied Magnetic Resonance 物理-光谱学
CiteScore
1.90
自引率
10.00%
发文量
59
审稿时长
2.3 months
期刊介绍: Applied Magnetic Resonance provides an international forum for the application of magnetic resonance in physics, chemistry, biology, medicine, geochemistry, ecology, engineering, and related fields. The contents include articles with a strong emphasis on new applications, and on new experimental methods. Additional features include book reviews and Letters to the Editor.
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