TY - JOUR
T1 - Chip-Compatible Quantum Plasmonic Launcher
AU - Chiang, Chin Cheng
AU - Bogdanov, Simeon I.
AU - Makarova, Oksana A.
AU - Xu, Xiaohui
AU - Saha, Soham
AU - Shah, Deesha
AU - Martin, Zachariah O.
AU - Wang, Di
AU - Lagutchev, Alexei S.
AU - Kildishev, Alexander V.
AU - Boltasseva, Alexandra
AU - Shalaev, Vladimir M.
N1 - This work was partially supported by the U.S. Department of Energy, Office of Basic Energy Sciences, Division of Materials Sciences and Engineering under Award DE‐SC0017717 (S.B.) and the Office of Naval Research (ONR) DURIP Grant Nos. N00014‐16‐1‐2767 and N00014‐17‐1‐2415 (equipment grants used to purchase the scanning confocal microscope, lasers, detectors, and single‐photon counting capability used in this work) and the NSF‐ECCS grant “MetaQuantum: Hybrid Plasmonic‐Photonic Meta‐Structures for Quantum Information Systems.”. A.V.K. acknowledges the DARPA/DSO EXTREME, Award HR00111720032 (numerical modeling and simulations). The authors thank Scott Jordan from Physik Instrumente for his assistance with the automation and control of the piezoelectric microscope stage.
This work was partially supported by the U.S. Department of Energy, Office of Basic Energy Sciences, Division of Materials Sciences and Engineering under Award DE-SC0017717 (S.B.) and the Office of Naval Research (ONR) DURIP Grant Nos. N00014-16-1-2767 and N00014-17-1-2415 (equipment grants used to purchase the scanning confocal microscope, lasers, detectors, and single-photon counting capability used in this work) and the NSF-ECCS grant ?MetaQuantum: Hybrid Plasmonic-Photonic Meta-Structures for Quantum Information Systems.?. A.V.K. acknowledges the DARPA/DSO EXTREME, Award HR00111720032 (numerical modeling and simulations). The authors thank Scott Jordan from Physik Instrumente for his assistance with the automation and control of the piezoelectric microscope stage.
PY - 2020/10/1
Y1 - 2020/10/1
N2 - Integrated on-demand single-photon sources are critical for the implementation of photonic quantum information processing systems. To enable practical quantum photonic devices, the emission rates of solid-state quantum emitters need to be substantially enhanced and the emitted signal must be directly coupled to an on-chip circuitry. The photon emission rate speed-up is best achieved via coupling to plasmonic antennas, while on-chip integration can be realized by directly coupling emitters to photonic waveguides. The realization of practical devices requires that both the emission speed-up and efficient out-coupling are achieved in a single architecture. Here, a novel architecture is proposed that combines chip compatibility with high radiative emission rates—a quantum plasmonic launcher. The proposed launchers contain single nitrogen-vacancy (NV) centers in nanodiamonds as quantum emitters that offer record-high average fluorescence lifetime shortening factors of about 7000 times. Nanodiamonds with single NVs are sandwiched between two silver films that couple more than half of the emission into in-plane propagating surface plasmon polaritons. This simple, compact, and scalable architecture represents a crucial step toward the practical realization of high-speed on-chip quantum networks.
AB - Integrated on-demand single-photon sources are critical for the implementation of photonic quantum information processing systems. To enable practical quantum photonic devices, the emission rates of solid-state quantum emitters need to be substantially enhanced and the emitted signal must be directly coupled to an on-chip circuitry. The photon emission rate speed-up is best achieved via coupling to plasmonic antennas, while on-chip integration can be realized by directly coupling emitters to photonic waveguides. The realization of practical devices requires that both the emission speed-up and efficient out-coupling are achieved in a single architecture. Here, a novel architecture is proposed that combines chip compatibility with high radiative emission rates—a quantum plasmonic launcher. The proposed launchers contain single nitrogen-vacancy (NV) centers in nanodiamonds as quantum emitters that offer record-high average fluorescence lifetime shortening factors of about 7000 times. Nanodiamonds with single NVs are sandwiched between two silver films that couple more than half of the emission into in-plane propagating surface plasmon polaritons. This simple, compact, and scalable architecture represents a crucial step toward the practical realization of high-speed on-chip quantum networks.
KW - in-plane emission
KW - nitrogen-vacancy centers
KW - plasmonic launchers
KW - quantum plasmonics
KW - single-photon sources
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U2 - 10.1002/adom.202000889
DO - 10.1002/adom.202000889
M3 - Article
AN - SCOPUS:85088813404
SN - 2195-1071
VL - 8
JO - Advanced Optical Materials
JF - Advanced Optical Materials
IS - 20
M1 - 2000889
ER -