闭循环λ原子系统的相位控制电致透明

Monika Thakran, Yashika Aneja, S. Dubey
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引用次数: 0

摘要

本文研究了微波驱动闭循环Lambda原子体系中的电磁感应透明(EIT)。我们观察到,在没有微波场的情况下,获得了一个正常的透明窗口,但是当微波场与光场一起在超精细能级之间施加时,观察到EIT信号的放大和衰减取决于驱动原子系统的场之间的相对相位。实际上,微波和耦合场对入射探测场产生建设性或破坏性的干扰,导致探测传输信号放大、衰减或不对称,从而产生新的探测场。此外,还研究了相敏放大与基态退相干的关系。这种新颖的、可控的、放大的EIT信号可以潜在地用于在光纤中传输相干微波模拟或数字信息信号,在这种情况下,放大是初步要求。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Phase Controlled Electromagnetically Induced Transparency in a Closed Cyclic Lambda Atomic System
In this work, Electromagnetically Induced Transparency (EIT) has been studied in a microwave driven closed cyclic Lambda atomic system. It is observed that in the absence of microwave field a normal transparency window is obtained, but when a microwave field is also applied between hyperfine levels along with the optical fields an amplification and attenuation in EIT signal is observed depending upon the relative phase between fields driving the atomic system. In fact, a new probe field is generated by microwave and coupling field which interfere constructively or destructively with incident probe field leading to either amplification, attenuation or asymmetricity in probe transmission signal. Also, dependency of phase sensitive amplification on ground state decoherence is also studied. This novel, controllable and amplified EIT signal can be potentially used for the transfer of coherent microwave analog or digital message signal over larger distance using optical fibers where amplification is preliminary requirement.
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