We present a numerical study of a microelectromechanical-system-based design of a fiber cavity integrated with an ion-trap system. Each fiber mirror is supported by a microactuator that controls the mirror's position in three dimensions. The mechanical stability is investigated by a feasibility analysis, which shows that the actuator offers stable support of the fiber. The actuators move the fibers' positions continuously with a stroke of more than 10 mu m, with mechanical resonance frequencies on the order of kilohertz. A calculation of the trapping potential shows that a separation between the ion and the fiber consistent with strong ion-cavity coupling is feasible. Our miniaturized ion-photon interface constitutes a viable appr...
The realisation of efficient ion-photon quantum interfaces is an essential step towards developing o...
In many quantum information applications quantum bits (qubits) are stored in single trapped atoms or...
The coupling of a single ion to an optical cavity is a promising route towards scalable quantum tech...
We present a numerical study of a microelectromechanical-system-based design of a fiber cavity integ...
We present an ion trap with an integrated fiber cavity, designed for strong coupling at the level of...
We present a novel ion trap design which facilitates the integration of an optical fiber cavity into...
We present and characterize fiber mirrors and a miniaturized ion-trap design developed to integrate ...
We report a novel miniature Paul ion trap design with an integrated optical fibre cavity which can s...
Precise control over internal states of atomic ions in ion traps has been possible for many years en...
Scalable quantum information processing requires efficient coupling between stationary qubits (trapp...
We investigate geometries for efficient coupling of single ions to fiber-coupled light fields for ap...
<div>The data provided is the data used in 11 of the figures in the research paper. Each sheet in t...
We investigate the distortions of trapping potentials when integrating fiber-tip optical cavities in...
Quantum technology has the potential to change the way we solve many problems in our daily lives. Pe...
Abstract Trapped ions are a promising platform for the deployment of quantum technologies. However, ...
The realisation of efficient ion-photon quantum interfaces is an essential step towards developing o...
In many quantum information applications quantum bits (qubits) are stored in single trapped atoms or...
The coupling of a single ion to an optical cavity is a promising route towards scalable quantum tech...
We present a numerical study of a microelectromechanical-system-based design of a fiber cavity integ...
We present an ion trap with an integrated fiber cavity, designed for strong coupling at the level of...
We present a novel ion trap design which facilitates the integration of an optical fiber cavity into...
We present and characterize fiber mirrors and a miniaturized ion-trap design developed to integrate ...
We report a novel miniature Paul ion trap design with an integrated optical fibre cavity which can s...
Precise control over internal states of atomic ions in ion traps has been possible for many years en...
Scalable quantum information processing requires efficient coupling between stationary qubits (trapp...
We investigate geometries for efficient coupling of single ions to fiber-coupled light fields for ap...
<div>The data provided is the data used in 11 of the figures in the research paper. Each sheet in t...
We investigate the distortions of trapping potentials when integrating fiber-tip optical cavities in...
Quantum technology has the potential to change the way we solve many problems in our daily lives. Pe...
Abstract Trapped ions are a promising platform for the deployment of quantum technologies. However, ...
The realisation of efficient ion-photon quantum interfaces is an essential step towards developing o...
In many quantum information applications quantum bits (qubits) are stored in single trapped atoms or...
The coupling of a single ion to an optical cavity is a promising route towards scalable quantum tech...