Harnessing Light with Photonic Nanowires: Fundamentals and Applications to Quantum Optics
The efficient feeding of spontaneous emission (SE) into a controlled optical mode lies at the heart of a new generation of advanced optoelectronic devices, such as low‐threshold microlasers and bright sources of quantum light. In the solid state, single‐mode emission was first demonstrated by using...
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Published in | Chemphyschem Vol. 14; no. 11; pp. 2393 - 2402 |
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Main Authors | , , , |
Format | Journal Article |
Language | English |
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WILEY-VCH Verlag
05.08.2013
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Abstract | The efficient feeding of spontaneous emission (SE) into a controlled optical mode lies at the heart of a new generation of advanced optoelectronic devices, such as low‐threshold microlasers and bright sources of quantum light. In the solid state, single‐mode emission was first demonstrated by using the Purcell effect that arises in a resonant microcavity. Recently, the need to relax the constraints inherent to such a narrow‐band approach has motivated large effort to develop structures ensuring broadband and efficient SE control. This minireview deals with fiber‐like photonic nanowires, a class of high‐index waveguides that features key assets in this context. Combining theoretical predictions and experimental results, the paper details the SE dynamics in such tiny wires. In addition, it shows how the far‐field emission of a single wire can be tailored through proper engineering of the two wire ends. As an application in the field of quantum optics, we review the realization of an ultrabright single‐photon source. This first device was based on a self‐assembled quantum dot embedded in a wire antenna realized with a top‐down fabrication process. Considering recent advances in the direct growth of tapered photonic wires, we also propose a bottom‐up fabrication route to realize a complete device. In particular, this proposal ensures the optimal 3D positioning of a single emitter inside the antenna. Finally, future research and application prospects are also reviewed.
Fire the photons: Photonic nanowire antennas efficiently funnel the emission of an embedded quantum light source into a directive optical beam. In this Minireview, the physics and realization of such devices are discussed. The authors consider both bottom‐up and top‐down fabrication routes and review potential applications to solid‐state quantum optics and beyond. |
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AbstractList | Abstract
The efficient feeding of spontaneous emission (SE) into a controlled optical mode lies at the heart of a new generation of advanced optoelectronic devices, such as low‐threshold microlasers and bright sources of quantum light. In the solid state, single‐mode emission was first demonstrated by using the Purcell effect that arises in a resonant microcavity. Recently, the need to relax the constraints inherent to such a narrow‐band approach has motivated large effort to develop structures ensuring broadband and efficient SE control. This minireview deals with fiber‐like photonic nanowires, a class of high‐index waveguides that features key assets in this context. Combining theoretical predictions and experimental results, the paper details the SE dynamics in such tiny wires. In addition, it shows how the far‐field emission of a single wire can be tailored through proper engineering of the two wire ends. As an application in the field of quantum optics, we review the realization of an ultrabright single‐photon source. This first device was based on a self‐assembled quantum dot embedded in a wire antenna realized with a top‐down fabrication process. Considering recent advances in the direct growth of tapered photonic wires, we also propose a bottom‐up fabrication route to realize a complete device. In particular, this proposal ensures the optimal 3D positioning of a single emitter inside the antenna. Finally, future research and application prospects are also reviewed. The efficient feeding of spontaneous emission (SE) into a controlled optical mode lies at the heart of a new generation of advanced optoelectronic devices, such as low-threshold microlasers and bright sources of quantum light. In the solid state, single-mode emission was first demonstrated by using the Purcell effect that arises in a resonant microcavity. Recently, the need to relax the constraints inherent to such a narrow-band approach has motivated large effort to develop structures ensuring broadband and efficient SE control. This minireview deals with fiber-like photonic nanowires, a class of high-index waveguides that features key assets in this context. Combining theoretical predictions and experimental results, the paper details the SE dynamics in such tiny wires. In addition, it shows how the far-field emission of a single wire can be tailored through proper engineering of the two wire ends. As an application in the field of quantum optics, we review the realization of an ultrabright single-photon source. This first device was based on a self-assembled quantum dot embedded in a wire antenna realized with a top-down fabrication process. Considering recent advances in the direct growth of tapered photonic wires, we also propose a bottom-up fabrication route to realize a complete device. In particular, this proposal ensures the optimal 3D positioning of a single emitter inside the antenna. Finally, future research and application prospects are also reviewed [PUBLICATION ABSTRACT]. The efficient feeding of spontaneous emission (SE) into a controlled optical mode lies at the heart of a new generation of advanced optoelectronic devices, such as low-threshold microlasers and bright sources of quantum light. In the solid state, single-mode emission was first demonstrated by using the Purcell effect that arises in a resonant microcavity. Recently, the need to relax the constraints inherent to such a narrow-band approach has motivated large effort to develop structures ensuring broadband and efficient SE control. This minireview deals with fiber-like photonic nanowires, a class of high-index waveguides that features key assets in this context. Combining theoretical predictions and experimental results, the paper details the SE dynamics in such tiny wires. In addition, it shows how the far-field emission of a single wire can be tailored through proper engineering of the two wire ends. As an application in the field of quantum optics, we review the realization of an ultrabright single-photon source. This first device was based on a self-assembled quantum dot embedded in a wire antenna realized with a top-down fabrication process. Considering recent advances in the direct growth of tapered photonic wires, we also propose a bottom-up fabrication route to realize a complete device. In particular, this proposal ensures the optimal 3D positioning of a single emitter inside the antenna. Finally, future research and application prospects are also reviewed. The efficient feeding of spontaneous emission (SE) into a controlled optical mode lies at the heart of a new generation of advanced optoelectronic devices, such as low‐threshold microlasers and bright sources of quantum light. In the solid state, single‐mode emission was first demonstrated by using the Purcell effect that arises in a resonant microcavity. Recently, the need to relax the constraints inherent to such a narrow‐band approach has motivated large effort to develop structures ensuring broadband and efficient SE control. This minireview deals with fiber‐like photonic nanowires, a class of high‐index waveguides that features key assets in this context. Combining theoretical predictions and experimental results, the paper details the SE dynamics in such tiny wires. In addition, it shows how the far‐field emission of a single wire can be tailored through proper engineering of the two wire ends. As an application in the field of quantum optics, we review the realization of an ultrabright single‐photon source. This first device was based on a self‐assembled quantum dot embedded in a wire antenna realized with a top‐down fabrication process. Considering recent advances in the direct growth of tapered photonic wires, we also propose a bottom‐up fabrication route to realize a complete device. In particular, this proposal ensures the optimal 3D positioning of a single emitter inside the antenna. Finally, future research and application prospects are also reviewed. Fire the photons: Photonic nanowire antennas efficiently funnel the emission of an embedded quantum light source into a directive optical beam. In this Minireview, the physics and realization of such devices are discussed. The authors consider both bottom‐up and top‐down fabrication routes and review potential applications to solid‐state quantum optics and beyond. |
Author | Gérard, Jean-Michel Gregersen, Niels Lalanne, Philippe Claudon, Julien |
Author_xml | – sequence: 1 givenname: Julien surname: Claudon fullname: Claudon, Julien email: julien.claudon@cea.fr organization: CEA-CNRS-UJF group "Nanophysique et Semiconducteurs", CEA, INAC, SP2 M, F-38054 Grenoble (France) – sequence: 2 givenname: Niels surname: Gregersen fullname: Gregersen, Niels organization: Department of Photonics Engineering, DTU Fotonik, Technical University of Denmark, Building 343, 2800 Kongens Lyngby (Denmark) – sequence: 3 givenname: Philippe surname: Lalanne fullname: Lalanne, Philippe organization: Laboratoire Photonique, Numérique et Nanosciences, Institut d'Optique d'Aquitaine, Univ. Bordeaux 1, CNRS, 33405 Talence cedex (France) – sequence: 4 givenname: Jean-Michel surname: Gérard fullname: Gérard, Jean-Michel organization: CEA-CNRS-UJF group "Nanophysique et Semiconducteurs", CEA, INAC, SP2 M, F-38054 Grenoble (France) |
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Keywords | Integrated optics Quantum dot Semiconductor materials single photon sources Quantum optics optical antennas Wire photonic wires Photon semiconductors quantum dots Optical waveguide Nanowires |
Language | English |
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Snippet | The efficient feeding of spontaneous emission (SE) into a controlled optical mode lies at the heart of a new generation of advanced optoelectronic devices,... Abstract The efficient feeding of spontaneous emission (SE) into a controlled optical mode lies at the heart of a new generation of advanced optoelectronic... |
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SubjectTerms | Applied sciences Circuit properties Electric, optical and optoelectronic circuits Electronics Engineering Sciences Exact sciences and technology Integrated optics. Optical fibers and wave guides Optical and optoelectronic circuits optical antennas Optics Photonic photonic wires Physics Quantum dots semiconductors single photon sources Wire |
Title | Harnessing Light with Photonic Nanowires: Fundamentals and Applications to Quantum Optics |
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