We report on a novel single-photon source using a single calcium ion trapped between the end facets of two optical fibers. The optical fibers act as photonic channels, and in addition their metallic jackets provide a trapping electric field for the ion. Our system successfully combines a stable single-atom emitter with fiber optics, demonstrating remarkable compactness and scalability. In consequence, it is very well suited for use in quantum networks, where single ions interface with single photons traveling through optical fibers. We have demonstrated the non-classical character of the photons generated by this efficient source in continuous as well as pulsed mode
Scaling up from prototype systems to dense arrays of ions on chip, or vast networks of ions connecte...
Long-range transport of quantum information across a network is most readily achieved through the us...
The controlled production of single photons is of fundamental and practical interest; they represent...
The controlled emission and absorption of single photons is an important enabling technology in the ...
We present a single calcium ion, coupled to a high-finesse cavity, as an almost ideal system for the...
Single atoms or atom-like emitters are the purest source of single photons, they are intrinsically ...
Abstract Trapped ions are a promising platform for the deployment of quantum technologies. However, ...
Thesis (M. Eng.)--Massachusetts Institute of Technology, Dept. of Electrical Engineering and Compute...
Incorporating solid-state quantum emitters into optical fiber networks enables the long-distance tra...
We demonstrate a surface-electrode ion trap fabricated using techniques transferred from the manufac...
Dans le cadre de l’étude expérimentale des états quantiques intriqués de particules uniques, il est ...
Trapped atomic ions are ideal single photon emitters with long-lived internal states which can be en...
Coupling individual quantum systems lies at the heart of building scalable quantum networks. Here, w...
We investigate two schemes for generating indistinguishable single photons, a key feature of quantum...
In many quantum information applications quantum bits (qubits) are stored in single trapped atoms or...
Scaling up from prototype systems to dense arrays of ions on chip, or vast networks of ions connecte...
Long-range transport of quantum information across a network is most readily achieved through the us...
The controlled production of single photons is of fundamental and practical interest; they represent...
The controlled emission and absorption of single photons is an important enabling technology in the ...
We present a single calcium ion, coupled to a high-finesse cavity, as an almost ideal system for the...
Single atoms or atom-like emitters are the purest source of single photons, they are intrinsically ...
Abstract Trapped ions are a promising platform for the deployment of quantum technologies. However, ...
Thesis (M. Eng.)--Massachusetts Institute of Technology, Dept. of Electrical Engineering and Compute...
Incorporating solid-state quantum emitters into optical fiber networks enables the long-distance tra...
We demonstrate a surface-electrode ion trap fabricated using techniques transferred from the manufac...
Dans le cadre de l’étude expérimentale des états quantiques intriqués de particules uniques, il est ...
Trapped atomic ions are ideal single photon emitters with long-lived internal states which can be en...
Coupling individual quantum systems lies at the heart of building scalable quantum networks. Here, w...
We investigate two schemes for generating indistinguishable single photons, a key feature of quantum...
In many quantum information applications quantum bits (qubits) are stored in single trapped atoms or...
Scaling up from prototype systems to dense arrays of ions on chip, or vast networks of ions connecte...
Long-range transport of quantum information across a network is most readily achieved through the us...
The controlled production of single photons is of fundamental and practical interest; they represent...