Scalability and miniaturization are hallmarks of solid-state platforms for photonic quantum technologies. Still a main challenge is two-photon interference from distinct emitters on chip. This requires local tuning, integration, and novel approaches to understand and tame noise processes. A promising platform is that of molecular single-photon sources. Thousands of molecules with optically tunable emission frequency can be easily isolated in solid matrices and triggered with pulsed excitation. We here discuss Hong-Ou-Mandel interference experiments using several couples of molecules within few tens of microns. Quantum interference is observed in real time, enabling the analysis of local environment effects at different time scales. (c) 2022 Optica Publishing Group under the terms of the Optica Open Access Publishing Agreement
Real-time two-photon interference from distinct molecules on the same chip
Duquennoy Rocco;Colautti Maja;Emadi Ramin;Majumder Prosenjit;Lombardi Pietro;Toninelli Costanza
2021
Abstract
Scalability and miniaturization are hallmarks of solid-state platforms for photonic quantum technologies. Still a main challenge is two-photon interference from distinct emitters on chip. This requires local tuning, integration, and novel approaches to understand and tame noise processes. A promising platform is that of molecular single-photon sources. Thousands of molecules with optically tunable emission frequency can be easily isolated in solid matrices and triggered with pulsed excitation. We here discuss Hong-Ou-Mandel interference experiments using several couples of molecules within few tens of microns. Quantum interference is observed in real time, enabling the analysis of local environment effects at different time scales. (c) 2022 Optica Publishing Group under the terms of the Optica Open Access Publishing AgreementFile | Dimensione | Formato | |
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Descrizione: Real-time two-photon interference from distinct molecules on the same chip
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