Atomic Vapor Confined In A Nanoscale Geometry : From Mesoscopic To Collective Effects.

european quantum electronics conference(2019)

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摘要
When many light emitters are subjected to an electromagnetic field with a wavelength λ, they may react collectively to the field. The resonant resulting, light-induced dipole-dipole interactions between atoms should lead to a collective frequency shift of the atomic lines. This shift, unfortunately named the cooperative or collective Lamb shift (CLS) despite its classical nature, depends on the shape of the sample. I will present a new investigation of the origin and validity of the CLS. To do so, we have measured the transmission resonance line shape of a dense hot vapor of potassium atoms confined in a slab with nanometer thickness. Using a complete model, we extract a density-dependent shift and width of the bulk atomic medium resonance (See Fig. 1(a)), deconvolved from the cavity effect [1].
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关键词
nanometer thickness,cavity effect,bulk atomic medium resonance,density-dependent shift,potassium atoms,dense hot vapor,transmission resonance line shape,classical nature,collective Lamb shift,cooperative Lamb shift,atomic lines,collective frequency shift,light-induced dipole-dipole interactions,resonant resulting,electromagnetic field,light emitters,collective effects,mesoscopic effects,nanoscale geometry,atomic vapor,K
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