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Modal analysis of the ultrahigh finesse Haroche QED cavity
by
Nicolet, André
, Geuzaine, Christophe
, Marsic, Nicolas
, Demésy, Guillaume
, Gersem, Herbert De
in
Cavity quantum electrodynamics
/ Cavity resonators
/ Computer simulation
/ Damping
/ Electrical & electronics engineering
/ Electrodynamics
/ Electromagnetism
/ Engineering, computing & technology
/ Finite element method
/ High performance computing
/ Ingénierie électrique & électronique
/ Ingénierie, informatique & technologie
/ Leaky modes
/ Modal analysis
/ Optics
/ Perfectly matched layer
/ Physics
/ Q factors
/ Quantum electrodynamics
/ Quantum electronics
/ Quasinormal modes
/ Spatial resolution
/ Superconducting resonators
/ Surface roughness
2018
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Modal analysis of the ultrahigh finesse Haroche QED cavity
by
Nicolet, André
, Geuzaine, Christophe
, Marsic, Nicolas
, Demésy, Guillaume
, Gersem, Herbert De
in
Cavity quantum electrodynamics
/ Cavity resonators
/ Computer simulation
/ Damping
/ Electrical & electronics engineering
/ Electrodynamics
/ Electromagnetism
/ Engineering, computing & technology
/ Finite element method
/ High performance computing
/ Ingénierie électrique & électronique
/ Ingénierie, informatique & technologie
/ Leaky modes
/ Modal analysis
/ Optics
/ Perfectly matched layer
/ Physics
/ Q factors
/ Quantum electrodynamics
/ Quantum electronics
/ Quasinormal modes
/ Spatial resolution
/ Superconducting resonators
/ Surface roughness
2018
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Modal analysis of the ultrahigh finesse Haroche QED cavity
by
Nicolet, André
, Geuzaine, Christophe
, Marsic, Nicolas
, Demésy, Guillaume
, Gersem, Herbert De
in
Cavity quantum electrodynamics
/ Cavity resonators
/ Computer simulation
/ Damping
/ Electrical & electronics engineering
/ Electrodynamics
/ Electromagnetism
/ Engineering, computing & technology
/ Finite element method
/ High performance computing
/ Ingénierie électrique & électronique
/ Ingénierie, informatique & technologie
/ Leaky modes
/ Modal analysis
/ Optics
/ Perfectly matched layer
/ Physics
/ Q factors
/ Quantum electrodynamics
/ Quantum electronics
/ Quasinormal modes
/ Spatial resolution
/ Superconducting resonators
/ Surface roughness
2018
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Modal analysis of the ultrahigh finesse Haroche QED cavity
Journal Article
Modal analysis of the ultrahigh finesse Haroche QED cavity
2018
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Overview
In this paper, we study a high-order finite element approach to simulate an ultrahigh finesse Fabry-Pérot superconducting open resonator for cavity quantum electrodynamics. Because of its high quality factor, finding a numerically converged value of the damping time requires an extremely high spatial resolution. Therefore, the use of high-order simulation techniques appears appropriate. This paper considers idealized mirrors (no surface roughness and perfect geometry, just to cite a few hypotheses), and shows that under these assumptions, a damping time much higher than what is available in experimental measurements could be achieved. In addition, this work shows that both high-order discretizations of the governing equations and high-order representations of the curved geometry are mandatory for the computation of the damping time of such cavities.
Publisher
IOP Publishing,Institute of Physics: Open Access Journals,Institute of Physics Publishing
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