电场作用下原子气体中的大规模玻色-爱因斯坦凝聚

Pei-Lin You
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引用次数: 1

摘要

观察到铯原子的大规模玻色-爱因斯坦凝聚(BEC) (T=343K)。BEC的技术瓶颈是非常小的俘获体积(10-8cm3),这使得凝聚态原子的数量仍然停滞不前(小于107),远小于正常凝聚态原子的数量(大于1013),大规模的BEC从未被观测到。在BEC实验中,科学家们已经应用了磁场(用于捕获原子)和激光(用于冷却原子),但从未考虑过应用电场,因为他们认为各种原子都是非极性原子。突破瓶颈的关键在于电场的应用。理论上,尽管铯的6s态和6p态都不是简并态,但Cs可能是极性原子,这与量子力学并不冲突,因为它是类氢原子。当施加电场时,Cs原子变成偶极子,因此可以观察到大规模的BEC。重新进行了铯的BEC实验。由熵S=0,临界电压Vc=78V。当V 0;当V > Vc, S Vc时,几乎所有的Cs原子(玻色子)都处于完全相同的状态,按照费曼的说法,“量子物理与经典物理是一回事”,所以我们的经典理论可以很好地解释BEC实验。超低温是为了使玻色气相转变,我们用临界电压来实现相变,超低温就不再需要了。五个创新公式在物理学史上首次被报道,这篇文章的发表标志着人类将进入一个极性原子的新时代。
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Large-Scale Bose-Einstein Condensation in an Atomic Gas by Applying an Electric Field
Large-scale Bose-Einstein condensation (BEC) of cesium atoms has been observed (T=343K). The technical bottleneck of BEC is very small trapping volume (10-8cm3), which made the number of condensed atoms still stagnant (less than 107), much smaller than normal condensation (more than 1013), large-scale BEC has never been observed. In BEC experiment, scientists have applied magnetic field (used to trap atoms) and laser (used to cool atoms), but never considered applying electric field, because they think that all kinds of atoms are non-polar atoms. The breakthrough of the bottleneck lies in the application of electric field. In theory, despite 6s and 6p states of cesium are not degenerate, but Cs may be polar atom doesn't conflict with quantum mechanics because it is hydrogen-like atom. When an electric field was applied, Cs atoms become dipoles, therefore large-scale BEC can be observed. BEC experiment of cesium has been redone. From the entropy S=0, critical voltage Vc=78V. When V 0; when V > Vc, S Vc, almost all Cs atoms (bosons) are in exactly the same state,according to Feynman, “the quantum physics is the same thing as the classical physics”, so our classical theory can explain BEC experiment satisfactorily. Ultra-low temperature is to make Bose gas phase transition, we used critical voltage to achieve phase transition, ultra-low temperature is no longer necessary. Five innovative formulas were first reported in the history of physics, the publication of this article marking mankind will enter a new era of polar atoms.
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