Chip-Compatible Quantum Plasmonic Launcher

  • Chin Cheng Chiang
  • , Simeon I. Bogdanov
  • , Oksana A. Makarova
  • , Xiaohui Xu
  • , Soham Saha
  • , Deesha Shah
  • , Zachariah O. Martin
  • , Di Wang
  • , Alexei S. Lagutchev
  • , Alexander V. Kildishev
  • , Alexandra Boltasseva
  • , Vladimir M. Shalaev

Research output: Contribution to journalArticlepeer-review

Abstract

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.

Original languageEnglish (US)
Article number2000889
JournalAdvanced Optical Materials
Volume8
Issue number20
Early online dateAug 2 2020
DOIs
StatePublished - Oct 1 2020

Keywords

  • in-plane emission
  • nitrogen-vacancy centers
  • plasmonic launchers
  • quantum plasmonics
  • single-photon sources

ASJC Scopus subject areas

  • Electronic, Optical and Magnetic Materials
  • Atomic and Molecular Physics, and Optics

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