Electromagnetically induced transparency (EIT) experiments in Lambda-type systems benefit from the use of hot vapor where the thermal averaging results in reducing the width of the EIT resonance well below the natural linewidth. Here, we demonstrate a technique for further reducing the EIT width in room-temperature vapor by the application of a small longitudinal magnetic field. The Zeeman shift of the energy levels results in the formation of several shifted subsystems; the net effect is to create multiple EIT dips each of which is significantly narrower than the original resonance. We observe a reduction by a factor of 3 in the D2 line of 87Rb with a field of 3.2 G
International audienceElectromagnetically induced transparency (EIT) effect has been studied using a...
We show that it is possible to change from a subnatural electromagnetically induced transparency (EI...
We report characterization of electromagnetically induced transparency (EIT) resonances in the D1 li...
Electromagnetically induced transparency (EIT) experiments in Lambda-type systems benefit from the u...
International audienceThe electromagnetically induced transparency (EIT) on the atomic D1 line of ru...
International audienceThe electromagnetically induced transparency (EIT) on the atomic D1 line of ru...
We study the sign of resonances obtained in electromagnetically induced transparency (EIT). Resonanc...
We study the sign of resonances obtained in electromagnetically induced transparency (EIT). Resonanc...
We demonstrate a method for further reducing the cavity linewidth by the application of a small long...
This paper investigates the absorptive reduction and the width narrowing of electromagnetically indu...
We obtain subnatural linewidth (i.e., $<\Gamma$) for probe absorption in room-temperature Rb vapor u...
We obtain subnatural linewidth (i.e., $<\Gamma$) for probe absorption in room-temperature Rb vapor u...
We study the phenomenon of electromagnetically induced transparency (EIT) in room-temperature Rb vap...
We study the phenomenon of electromagnetically induced transparency (EIT) in room-temperature Rb vap...
International audienceElectromagnetically induced transparency (EIT) effect has been studied using a...
International audienceElectromagnetically induced transparency (EIT) effect has been studied using a...
We show that it is possible to change from a subnatural electromagnetically induced transparency (EI...
We report characterization of electromagnetically induced transparency (EIT) resonances in the D1 li...
Electromagnetically induced transparency (EIT) experiments in Lambda-type systems benefit from the u...
International audienceThe electromagnetically induced transparency (EIT) on the atomic D1 line of ru...
International audienceThe electromagnetically induced transparency (EIT) on the atomic D1 line of ru...
We study the sign of resonances obtained in electromagnetically induced transparency (EIT). Resonanc...
We study the sign of resonances obtained in electromagnetically induced transparency (EIT). Resonanc...
We demonstrate a method for further reducing the cavity linewidth by the application of a small long...
This paper investigates the absorptive reduction and the width narrowing of electromagnetically indu...
We obtain subnatural linewidth (i.e., $<\Gamma$) for probe absorption in room-temperature Rb vapor u...
We obtain subnatural linewidth (i.e., $<\Gamma$) for probe absorption in room-temperature Rb vapor u...
We study the phenomenon of electromagnetically induced transparency (EIT) in room-temperature Rb vap...
We study the phenomenon of electromagnetically induced transparency (EIT) in room-temperature Rb vap...
International audienceElectromagnetically induced transparency (EIT) effect has been studied using a...
International audienceElectromagnetically induced transparency (EIT) effect has been studied using a...
We show that it is possible to change from a subnatural electromagnetically induced transparency (EI...
We report characterization of electromagnetically induced transparency (EIT) resonances in the D1 li...