Velocity Selection Technique for High-Resolution Spectroscopy

E. Korsunsky, D. Kosachiov, Y. Rozhdestvensky
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Abstract

It is known [1-3], that the samples of atoms with a velocity spread much lower than the recoil velocity uR= ħk/M (k is the wave number of exciting light field, M is the mass of atom) can be obtained by use of velocity selection with stimulated Raman transitions. A theoretical analysis of the velocity selection method is presented in [2,3]. So, it was shown in [2] that the formation of such narrow velocity structures is performed not only by the counterpropagating, but also by co-propagating light waves. This fact allows to form the two-dimensional velocity distribution of the widths δvx,y « uR by the velocity selection technique using laser configuration as in Fig. 1b.
高分辨率光谱的速度选择技术
已知[1-3],利用受激拉曼跃迁的速度选择,可以得到速度扩散远低于反冲速度uR= ħk/M (k为激发光场波数,M为原子质量)的原子样品。对速度选择方法进行了理论分析[2,3]。因此,[2]表明,这种窄速度结构的形成不仅是由反传播的光波完成的,而且是由共传播的光波完成的。这一事实允许通过使用如图1b所示激光配置的速度选择技术形成宽度δvx,y«uR的二维速度分布。
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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