0000000000497705

AUTHOR

S. Nic Chormaic

showing 3 related works from this author

Spontaneous emission and energy shifts of a Rydberg rubidium atom close to an optical nanofiber

2020

In this paper, we report on numerical calculations of the spontaneous emission rates and Lamb shifts of a $^{87}\text{Rb}$ atom in a Rydberg-excited state $\left(n\leq30\right)$ located close to a silica optical nanofiber. We investigate how these quantities depend on the fiber's radius, the distance of the atom to the fiber, the direction of the atomic angular momentum polarization as well as the different atomic quantum numbers. We also study the contribution of quadrupolar transitions, which may be substantial for highly polarizable Rydberg states. Our calculations are performed in the macroscopic quantum electrodynamics formalism, based on the dyadic Green's function method. This allows…

Quantum opticsPhysicsAngular momentumQuantum Physics[PHYS.PHYS.PHYS-ATOM-PH]Physics [physics]/Physics [physics]/Atomic Physics [physics.atom-ph]FOS: Physical sciencesPhysics::OpticsQuantum number01 natural sciences010305 fluids & plasmas3. Good healthsymbols.namesake[PHYS.QPHY]Physics [physics]/Quantum Physics [quant-ph]0103 physical sciencesAtomRydberg atomRydberg formulasymbolsSpontaneous emission[PHYS.PHYS.PHYS-CHEM-PH]Physics [physics]/Physics [physics]/Chemical Physics [physics.chem-ph]Physics::Atomic PhysicsAtomic physicsQuantum informationQuantum Physics (quant-ph)010306 general physics
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Spontaneous emission of a sodium Rydberg atom close to an optical nanofibre

2019

International audience; We report on numerical calculations of the spontaneous emission rate of a Rydberg-excited sodium atom in the vicinity of an optical nanobre. In particular, we study how this rate varies with the distance of the atom to the bre, the bre's radius, the symmetry s or p of the Rydberg state as well as its principal quantum number. We nd that a fraction of the spontaneously emitted light can be captured and guided along the bre. This suggests that such a setup could be used for networking atomic ensembles, manipulated in a collective way due to the Rydberg blockade phenomenon.

FOS: Physical sciences02 engineering and technologyoptical nanofibres01 natural sciencessymbols.namesake020210 optoelectronics & photonics[PHYS.QPHY]Physics [physics]/Quantum Physics [quant-ph]0103 physical sciencesAtomPrincipal quantum number0202 electrical engineering electronic engineering information engineeringSpontaneous emissionPhysics::Atomic Physics010306 general physicsPhysicsQuantum Physics[PHYS.PHYS.PHYS-ATOM-PH]Physics [physics]/Physics [physics]/Atomic Physics [physics.atom-ph]Spontaneous emission ratesRadiusCondensed Matter Physicsspontaneous emission ratesAtomic and Molecular Physics and OpticsSymmetry (physics)Optical nanobresRydberg atomRydberg formulasymbols[PHYS.PHYS.PHYS-CHEM-PH]Physics [physics]/Physics [physics]/Chemical Physics [physics.chem-ph]Atomic physicsRydberg stateQuantum Physics (quant-ph)Rydberg atoms
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Spontaneous emission rates and energy shifts of a Rydberg rubidium atom close to an optical nanofiber

2020

The influence of an optical nanofiber on the spontaneous emission rates and Lamb shifts of a Rydberg rubidium atom in its close vicinity is investigated, in view of the implementation of a Rydberg-blockade-based quantum network.

PhysicsQuantum networkPhysics::OpticsQuantum PhysicsQuantum memorysymbols.namesakeNanofiberPhysics::Atomic and Molecular ClustersRydberg formulasymbolsSpontaneous emissionPhysics::Atomic PhysicsRubidium atomAtomic physicsEnergy (signal processing)OSA Quantum 2.0 Conference
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