Highly-nonlinear quantum-engineered polaritonic metasurfaces

Jongwon Lee; Nishant Nookala; Juan Sebastian Gomez Diaz; Mykhailo Tymchenko; Frederic Demmerle; Gerhard Boehm; Markus Christian Amann; Andrea Alù; Mikhail A. Belkin

doi:10.1117/12.2190454

Highly-nonlinear quantum-engineered polaritonic metasurfaces

Jongwon Lee, Nishant Nookala, Juan Sebastian Gomez Diaz, Mykhailo Tymchenko, Frederic Demmerle, Gerhard Boehm, Markus Christian Amann, Andrea Alù, Mikhail A. Belkin

Research output: Chapter in Book/Report/Conference proceeding › Conference contribution

Abstract

Intersubband transitions in n-doped semiconductor heterostructures allow one to quantum-engineer one of the largest known nonlinear response in condensed matter systems but only for the electric field polarized normal to semiconductor layer. By coupling of a quantum-engineered multi-quantum-well semiconductor layer with electromagnetically-engineered plasmonic elements we may produce ultrathin metasurfaces with giant nonlinear response. Here we experimentally demonstrate metasurfaces designed for second harmonic generation at λ∼9.9 μm with a record-high nonlinear response for condensed-matter systems in infrared/visible spectral range, up to 1.17×10⁶ pm/V. The practical impact of the nonlinear metasurfaces proposed here may be extended to a variety of fields, including THz generation and detection, phase conjugation, and other nonlinear optical processes.

Original language	English (US)
Title of host publication	Active Photonic Materials VII
Editors	Stavroula Foteinopoulou, Ganapathi S. Subramania
Publisher	SPIE
Volume	9546
ISBN (Electronic)	9781628417128
DOIs	https://doi.org/10.1117/12.2190454
State	Published - Jan 1 2015
Externally published	Yes
Event	Active Photonic Materials VII Conference - San Diego, United States Duration: Aug 9 2015 → Aug 13 2015

Other

Other	Active Photonic Materials VII Conference
Country/Territory	United States
City	San Diego
Period	8/9/15 → 8/13/15

Keywords

Intersubband transitions
Metamaterials
Plasmonics
Second harmonic generation
Semiconductor nonlinear optics including MQW

ASJC Scopus subject areas

Electronic, Optical and Magnetic Materials
Condensed Matter Physics
Computer Science Applications
Applied Mathematics
Electrical and Electronic Engineering

Access to Document

10.1117/12.2190454

Cite this

Highly-nonlinear quantum-engineered polaritonic metasurfaces. / Lee, Jongwon; Nookala, Nishant; Gomez Diaz, Juan Sebastian; Tymchenko, Mykhailo; Demmerle, Frederic; Boehm, Gerhard; Amann, Markus Christian; Alù, Andrea; Belkin, Mikhail A.

Active Photonic Materials VII. ed. / Stavroula Foteinopoulou; Ganapathi S. Subramania. Vol. 9546 SPIE, 2015. 95460K.

Research output: Chapter in Book/Report/Conference proceeding › Conference contribution

Lee, J, Nookala, N, Gomez Diaz, JS, Tymchenko, M, Demmerle, F, Boehm, G, Amann, MC, Alù, A & Belkin, MA 2015, Highly-nonlinear quantum-engineered polaritonic metasurfaces. in S Foteinopoulou & GS Subramania (eds), Active Photonic Materials VII. vol. 9546, 95460K, SPIE, Active Photonic Materials VII Conference, San Diego, United States, 8/9/15. https://doi.org/10.1117/12.2190454

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abstract = "Intersubband transitions in n-doped semiconductor heterostructures allow one to quantum-engineer one of the largest known nonlinear response in condensed matter systems but only for the electric field polarized normal to semiconductor layer. By coupling of a quantum-engineered multi-quantum-well semiconductor layer with electromagnetically-engineered plasmonic elements we may produce ultrathin metasurfaces with giant nonlinear response. Here we experimentally demonstrate metasurfaces designed for second harmonic generation at λ∼9.9 μm with a record-high nonlinear response for condensed-matter systems in infrared/visible spectral range, up to 1.17×106 pm/V. The practical impact of the nonlinear metasurfaces proposed here may be extended to a variety of fields, including THz generation and detection, phase conjugation, and other nonlinear optical processes.",

keywords = "Intersubband transitions, Metamaterials, Plasmonics, Second harmonic generation, Semiconductor nonlinear optics including MQW",

author = "Jongwon Lee and Nishant Nookala and {Gomez Diaz}, {Juan Sebastian} and Mykhailo Tymchenko and Frederic Demmerle and Gerhard Boehm and Amann, {Markus Christian} and Andrea Al{\`u} and Belkin, {Mikhail A.}",

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AU - Lee, Jongwon

AU - Nookala, Nishant

AU - Gomez Diaz, Juan Sebastian

AU - Tymchenko, Mykhailo

AU - Demmerle, Frederic

AU - Boehm, Gerhard

AU - Amann, Markus Christian

AU - Alù, Andrea

AU - Belkin, Mikhail A.

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N2 - Intersubband transitions in n-doped semiconductor heterostructures allow one to quantum-engineer one of the largest known nonlinear response in condensed matter systems but only for the electric field polarized normal to semiconductor layer. By coupling of a quantum-engineered multi-quantum-well semiconductor layer with electromagnetically-engineered plasmonic elements we may produce ultrathin metasurfaces with giant nonlinear response. Here we experimentally demonstrate metasurfaces designed for second harmonic generation at λ∼9.9 μm with a record-high nonlinear response for condensed-matter systems in infrared/visible spectral range, up to 1.17×106 pm/V. The practical impact of the nonlinear metasurfaces proposed here may be extended to a variety of fields, including THz generation and detection, phase conjugation, and other nonlinear optical processes.

AB - Intersubband transitions in n-doped semiconductor heterostructures allow one to quantum-engineer one of the largest known nonlinear response in condensed matter systems but only for the electric field polarized normal to semiconductor layer. By coupling of a quantum-engineered multi-quantum-well semiconductor layer with electromagnetically-engineered plasmonic elements we may produce ultrathin metasurfaces with giant nonlinear response. Here we experimentally demonstrate metasurfaces designed for second harmonic generation at λ∼9.9 μm with a record-high nonlinear response for condensed-matter systems in infrared/visible spectral range, up to 1.17×106 pm/V. The practical impact of the nonlinear metasurfaces proposed here may be extended to a variety of fields, including THz generation and detection, phase conjugation, and other nonlinear optical processes.

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Highly-nonlinear quantum-engineered polaritonic metasurfaces

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Keywords

ASJC Scopus subject areas

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