We experimentally investigate ultralow-power saturation of the rubidium D2 transitions using a tapered optical fiber (TOF) suspended in a warm Rb vapor. A direct comparison of nonlinear absorption measurements for the TOF system with those obtained in a standard free-space vapor cell system highlights the differences in saturation behavior for the two systems. The effects of hyperfine pumping in the TOF system are found to be minimized due to the short atomic transit times through the highly confined evanescent optical mode guided by the TOF. The TOF system data is well-fit by a relatively simple empirical absorption model that indicates nanoWatt-level saturation powers
We demonstrate experimentally that it is possible to detect and measure the self-broadening rate and...
We study Doppler-free saturation resonances in the absorption band of rubidium diatomic molecules in...
We demonstrate a promising fiber architecture for generating strong photon-photon interactions. Expo...
In this work, we describe experimental research on a relatively new nonlinear optics system comprise...
Low-light-level optical nonlinearities are of significant interest for perform-ing operations such a...
We show that a Rubidium vapor can be produced within the core of a photonic band-gap fiber yielding ...
International audienceIn this paper, we present detailed high-resolution spectroscopy of rubidium (R...
The ability to control light with light at ultralow powers has been a major avenue of research in ph...
You will use a tunable diode laser to carry out spectroscopic studies of the rubidium atom. You will...
We present two-photon spectroscopy of a thermal rubidium vapor confined to the hollow core of a phot...
We study non-linear absorption of intense monochromatic light through a dense natural rubidium (Rb) ...
We study the Doppler-broadened absorption of a weak monochromatic probe beam in a thermal rubidium v...
We theoretically and experimentally examine the spectroscopy of warm atoms traversing the evanescent...
We study ultrabroadband slow light in a warm rubidium vapor cell. By working between the D1 and D2 t...
Optical nanofibres (ONFs) are very thin optical waveguides with sub-wavelength diameters. ONFs have ...
We demonstrate experimentally that it is possible to detect and measure the self-broadening rate and...
We study Doppler-free saturation resonances in the absorption band of rubidium diatomic molecules in...
We demonstrate a promising fiber architecture for generating strong photon-photon interactions. Expo...
In this work, we describe experimental research on a relatively new nonlinear optics system comprise...
Low-light-level optical nonlinearities are of significant interest for perform-ing operations such a...
We show that a Rubidium vapor can be produced within the core of a photonic band-gap fiber yielding ...
International audienceIn this paper, we present detailed high-resolution spectroscopy of rubidium (R...
The ability to control light with light at ultralow powers has been a major avenue of research in ph...
You will use a tunable diode laser to carry out spectroscopic studies of the rubidium atom. You will...
We present two-photon spectroscopy of a thermal rubidium vapor confined to the hollow core of a phot...
We study non-linear absorption of intense monochromatic light through a dense natural rubidium (Rb) ...
We study the Doppler-broadened absorption of a weak monochromatic probe beam in a thermal rubidium v...
We theoretically and experimentally examine the spectroscopy of warm atoms traversing the evanescent...
We study ultrabroadband slow light in a warm rubidium vapor cell. By working between the D1 and D2 t...
Optical nanofibres (ONFs) are very thin optical waveguides with sub-wavelength diameters. ONFs have ...
We demonstrate experimentally that it is possible to detect and measure the self-broadening rate and...
We study Doppler-free saturation resonances in the absorption band of rubidium diatomic molecules in...
We demonstrate a promising fiber architecture for generating strong photon-photon interactions. Expo...