The on-chip integration of quantum light sources and nonlinear elements constitutes a major step toward scalable photon-based quantum information processing and communication. In this work we demonstrate the potential of a hybrid technology that combines organic molecule-based quantum emitters and dielectric chips consisting of ridge waveguides and grating far-field couplers. In particular, dibenzoterrylene molecules in thin anthracene crystals are used as single-photon sources, exhibiting long-term photostability, easy fabrication methods, almost unitary quantum yield, and lifetime-limited emission at cryogenic temperatures. We couple such single emitters to silicon nitride ridge waveguides, showing a coupling efficiency of up to 42 ± 2% over both propagation directions. Our results open a novel path toward a fully integrated and scalable photon processing platform.
Photostable Molecules on Chip: Integrated Sources of Nonclassical Light / Lombardi, P.; Ovvyan, A.P.; Pazzagli, S.; Mazzamuto, G.; Kewes, G.; Neitzke, O.; Gruhler, N.; Benson, O.; Pernice, W.H.P.; Cataliotti, F.S.; Toninelli, C.. - In: ACS PHOTONICS. - ISSN 2330-4022. - STAMPA. - 5:(2018), pp. 126-132. [10.1021/acsphotonics.7b00521]
Photostable Molecules on Chip: Integrated Sources of Nonclassical Light
Lombardi, P.;PAZZAGLI, SOFIA;Mazzamuto, G.;Cataliotti, F. S.;
2018
Abstract
The on-chip integration of quantum light sources and nonlinear elements constitutes a major step toward scalable photon-based quantum information processing and communication. In this work we demonstrate the potential of a hybrid technology that combines organic molecule-based quantum emitters and dielectric chips consisting of ridge waveguides and grating far-field couplers. In particular, dibenzoterrylene molecules in thin anthracene crystals are used as single-photon sources, exhibiting long-term photostability, easy fabrication methods, almost unitary quantum yield, and lifetime-limited emission at cryogenic temperatures. We couple such single emitters to silicon nitride ridge waveguides, showing a coupling efficiency of up to 42 ± 2% over both propagation directions. Our results open a novel path toward a fully integrated and scalable photon processing platform.File | Dimensione | Formato | |
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