Making two-photon processes dominate one-photon processes using mid-IR phonon polaritons

Phonon polaritons are guided hybrid modes of photons and optical phonons that can propagate on the surface of a polar dielectric. In this work, we show that the precise combination of confinement and bandwidth offered by phonon polaritons allows for the ability to create highly efficient sources of...

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Principais autores: Rivera, Nicholas H., Rosolen, Gilles D, Joannopoulos, John, Kaminer, Ido Efraim, Soljacic, Marin
Outros Autores: Massachusetts Institute of Technology. Department of Physics
Formato: Artigo
Publicado em: National Academy of Sciences (U.S.) 2018
Acesso em linha:http://hdl.handle.net/1721.1/117751
https://orcid.org/0000-0002-7244-3682
https://orcid.org/0000-0003-2691-1892
https://orcid.org/0000-0002-7184-5831
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author Rivera, Nicholas H.
Rosolen, Gilles D
Joannopoulos, John
Kaminer, Ido Efraim
Soljacic, Marin
author2 Massachusetts Institute of Technology. Department of Physics
author_facet Massachusetts Institute of Technology. Department of Physics
Rivera, Nicholas H.
Rosolen, Gilles D
Joannopoulos, John
Kaminer, Ido Efraim
Soljacic, Marin
author_sort Rivera, Nicholas H.
collection MIT
description Phonon polaritons are guided hybrid modes of photons and optical phonons that can propagate on the surface of a polar dielectric. In this work, we show that the precise combination of confinement and bandwidth offered by phonon polaritons allows for the ability to create highly efficient sources of polariton pairs in the mid-IR/terahertz frequency ranges. Specifically, these polar dielectrics can cause emitters to preferentially decay by the emission of pairs of phonon polaritons, instead of the previously dominant single-photon emission. We show that such two-photon emission processes can occur on nanosecond time scales and can be nearly 2 orders of magnitude faster than competing singlephoton transitions, as opposed to being as much as 8-10 orders of magnitude slower in free space. These results are robust to the choice of polar dielectric, allowing potentially versatile implementation in a host of materials such as hexagonal boron nitride, silicon carbide, and others. Our results suggest a design strategy for quantum light sources in the mid-IR/terahertz: ones that prefer to emit a relatively broad spectrum of photon pairs, potentially allowing for new sources of both single and multiple photons. Keywords: two-photon processes; phonon polaritons; light–matter interactions; Purcell effect; nanophotonics
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spelling mit-1721.1/1177512022-10-01T05:24:03Z Making two-photon processes dominate one-photon processes using mid-IR phonon polaritons Rivera, Nicholas H. Rosolen, Gilles D Joannopoulos, John Kaminer, Ido Efraim Soljacic, Marin Massachusetts Institute of Technology. Department of Physics Rivera, Nicholas H. Rosolen, Gilles D Joannopoulos, John Kaminer, Ido Efraim Soljacic, Marin Phonon polaritons are guided hybrid modes of photons and optical phonons that can propagate on the surface of a polar dielectric. In this work, we show that the precise combination of confinement and bandwidth offered by phonon polaritons allows for the ability to create highly efficient sources of polariton pairs in the mid-IR/terahertz frequency ranges. Specifically, these polar dielectrics can cause emitters to preferentially decay by the emission of pairs of phonon polaritons, instead of the previously dominant single-photon emission. We show that such two-photon emission processes can occur on nanosecond time scales and can be nearly 2 orders of magnitude faster than competing singlephoton transitions, as opposed to being as much as 8-10 orders of magnitude slower in free space. These results are robust to the choice of polar dielectric, allowing potentially versatile implementation in a host of materials such as hexagonal boron nitride, silicon carbide, and others. Our results suggest a design strategy for quantum light sources in the mid-IR/terahertz: ones that prefer to emit a relatively broad spectrum of photon pairs, potentially allowing for new sources of both single and multiple photons. Keywords: two-photon processes; phonon polaritons; light–matter interactions; Purcell effect; nanophotonics United States. Army Research Office (Contract W911NF-13-D-0001) United States. Department of Energy (Grant DE-FG02-97ER25308) 2018-09-13T19:09:47Z 2018-09-13T19:09:47Z 2017-12 2017-08 2018-09-05T16:52:07Z Article http://purl.org/eprint/type/JournalArticle 0027-8424 1091-6490 http://hdl.handle.net/1721.1/117751 Rivera, Nicholas et al. “Making Two-Photon Processes Dominate One-Photon Processes Using Mid-IR Phonon Polaritons.” Proceedings of the National Academy of Sciences 114, 52 (December 2017): 13607–13612 https://orcid.org/0000-0002-7244-3682 https://orcid.org/0000-0003-2691-1892 https://orcid.org/0000-0002-7184-5831 http://dx.doi.org/10.1073/PNAS.1713538114 Proceedings of the National Academy of Sciences Article is made available in accordance with the publisher's policy and may be subject to US copyright law. Please refer to the publisher's site for terms of use. application/pdf National Academy of Sciences (U.S.) PNAS
spellingShingle Rivera, Nicholas H.
Rosolen, Gilles D
Joannopoulos, John
Kaminer, Ido Efraim
Soljacic, Marin
Making two-photon processes dominate one-photon processes using mid-IR phonon polaritons
title Making two-photon processes dominate one-photon processes using mid-IR phonon polaritons
title_full Making two-photon processes dominate one-photon processes using mid-IR phonon polaritons
title_fullStr Making two-photon processes dominate one-photon processes using mid-IR phonon polaritons
title_full_unstemmed Making two-photon processes dominate one-photon processes using mid-IR phonon polaritons
title_short Making two-photon processes dominate one-photon processes using mid-IR phonon polaritons
title_sort making two photon processes dominate one photon processes using mid ir phonon polaritons
url http://hdl.handle.net/1721.1/117751
https://orcid.org/0000-0002-7244-3682
https://orcid.org/0000-0003-2691-1892
https://orcid.org/0000-0002-7184-5831
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