Optics Letters · 2017 · 37 citations · 20 references
Natural SciencesPhysicsOpticsPhotonicsQuantum MechanicsLaser TrappingNonlinear OpticsOptical FibersOptical ResonatorsQuantum OpticsUltrafast OpticsCavity Quantum ElectrodynamicsCooperativityFemtosecond Laser PulsesHigh-finesse CavitiesLaser AblationResonant CavitiesSingle-atom TrappingSingle-photon Sources
The study reports fabricating a 1.2 cm cavity on a nanofiber. This was achieved using femtosecond laser ablation. The cavity attains finesse 200–400, enabling strong‑coupling with cooperativity 10–20 for a single atom 200 nm from the fiber while preserving 40–60 % transmission (99.53 % one‑pass.
We report the fabrication of a 1.2 cm long cavity directly on a nanofiber using femtosecond laser ablation. The cavity modes with finesse values in the range of 200-400 can enable the "strong-coupling" regime of cavity QED, with high cooperativity of 10-20, for a single atom trapped 200 nm away from the fiber surface [Phys. Rev. A80, 053826 (2009)PLRAAN1050-294710.1103/PhysRevA.80.053826]. Such cavity modes can still maintain the transmission between 40%-60%, suggesting a one-pass intracavity transmission of 99.53%. Other cavity modes, which can enable cooperativity in the range of 3-10, show transmission over 60%-85% and are suitable for fiber-based single-photon sources and quantum nonlinear optics in the "Purcell" regime.
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Natural Sciences, Physics, Optics +12