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Saturated absorption and electromagnetically induced transparency of residual rubidium in dense cesium vapor

Armen D. Sargsyan, Anahit L. Gogyan, David G. Sarkisyan

Published Jan 1, 2026• 0 citations
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DOI
10.2139/ssrn.6404009

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Saturated absorption and electromagnetically induced transparency of residual rubidium in dense cesium vapor

Armen D. Sargsyan, Anahit L. Gogyan, David G. Sarkisyan

In the sealed-off cesium vapor cell studied in this work, a residual rubidium fraction of approximately $\sim$1\% was observed. We investigate the optical response of these trace Rb atoms in a sealed 1~cm long Cs-filled vapor cell. Despite the low concentration, laser excitation at 795~nm allows the observation of saturated absorption and electromagnetically induced transparency (EIT) resonances. The surrounding Cs vapor effectively acts as a buffer medium, reducing the Rb atomic velocity and increasing the interaction time with the laser field, which improves the EIT signal. The experiments are performed in an all-sapphire cell that can be heated up to 500$^{\circ}$C without window blackening, unlike conventional glass cells. From the measured spectra, Cs--Rb collisional cross sections are estimated. These results show that residual atomic species in high-temperature vapor cells can be exploited for spectroscopic and nonlinear-optical studies.

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Observation of electromagnetically induced transparency in cesium molecules

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We have studied electromagnetically induced transparency (EIT) in diatomic cesium molecules in a vapor cell by using tunable diode lasers. We have observed a sub-natural Λ-resonance in absorption molecular band B 1Π u − X 1Σ g + at different cesium vapor pressures. The width of the EIT resonance shows a linear dependence on a cesium vapor pressure.

arXiv:0902.2745•Laser Physics•Jun 25, 2010•17 citations
In the sealed-off cesium vapor cell studied in this work, a residual rubidium fraction of approximately $\sim1%wasobserved.WeinvestigatetheopticalresponseofthesetraceRbatomsinasealed1 cmlongCs−filledvaporcell.Despitethelowconcentration,laserexcitationat795 nmallowstheobservationofsaturatedabsorptionandelectromagneticallyinducedtransparency(EIT)resonances.ThesurroundingCsvaporeffectivelyactsasabuffermedium,reducingtheRbatomicvelocityandincreasingtheinteractiontimewiththelaserfield,whichimprovestheEITsignal.Theexperimentsareperformedinanall−sapphirecellthatcanbeheatedupto5001\% was observed. We investigate the optical response of these trace Rb atoms in a sealed 1~cm long Cs-filled vapor cell. Despite the low concentration, laser excitation at 795~nm allows the observation of saturated absorption and electromagnetically induced transparency (EIT) resonances. The surrounding Cs vapor effectively acts as a buffer medium, reducing the Rb atomic velocity and increasing the interaction time with the laser field, which improves the EIT signal. The experiments are performed in an all-sapphire cell that can be heated up to 5001%wasobserved.WeinvestigatetheopticalresponseofthesetraceRbatomsinasealed1 cmlongCs−filledvaporcell.Despitethelowconcentration,laserexcitationat795 nmallowstheobservationofsaturatedabsorptionandelectromagneticallyinducedtransparency(EIT)resonances.ThesurroundingCsvaporeffectivelyactsasabuffermedium,reducingtheRbatomicvelocityandincreasingtheinteractiontimewiththelaserfield,whichimprovestheEITsignal.Theexperimentsareperformedinanall−sapphirecellthatcanbeheatedupto500^{\circ}$C without window blackening, unlike conventional glass cells. From the measured spectra, Cs--Rb collisional cross sections are estimated. These results show that residual atomic species in high-temperature vapor cells can be exploited for spectroscopic and nonlinear-optical studies.