Optical slot antennas and their applications to photonic devices

We present optical slot antennas and their applications to photonic devices. We show that metallic nanoslots have the properties of a slot antenna by measuring the transmission spectra and far-field radiation patterns and then prove that they can be physically regarded as magnetic dipoles in the opt...

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Published inNanophotonics (Berlin, Germany) Vol. 7; no. 10; pp. 1617 - 1636
Main Authors Park, Yeonsang, Kim, Jineun, Roh, Young-Geun, Park, Q-Han
Format Journal Article
LanguageEnglish
Published De Gruyter 25.10.2018
Subjects
integration to photonic devices
magnetic dipole
metallic nanoslot
optical slot antenna
optical slot Yagi-Uda antenna
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Abstract We present optical slot antennas and their applications to photonic devices. We show that metallic nanoslots have the properties of a slot antenna by measuring the transmission spectra and far-field radiation patterns and then prove that they can be physically regarded as magnetic dipoles in the optical region. Additionally, we can generate directional radiations from optical slot antennas by adopting the geometry of radiofrequency Yagi-Uda antenna and properly adding auxiliary elements called reflectors and directors to a single slot antenna. We present two cases as the applications of optical slot antennas. One is the integration of slot antennas to plasmonic waveguides. This combination can be used as a basic unit for optical interconnection to free space and plasmonic via in multilayered plasmonic structures. The other is the integration of slot antennas to the electrode of light-emitting diodes (LEDs). Using slot antennas, we can control the polarization and direction of emissions from LEDs. Besides the above-mentioned two cases, we expect that optical slot antennas have possible applications to various photonic devices and can be essential elements in future integrated photonic circuits with nanometer scales.
AbstractList Abstract We present optical slot antennas and their applications to photonic devices. We show that metallic nanoslots have the properties of a slot antenna by measuring the transmission spectra and far-field radiation patterns and then prove that they can be physically regarded as magnetic dipoles in the optical region. Additionally, we can generate directional radiations from optical slot antennas by adopting the geometry of radiofrequency Yagi-Uda antenna and properly adding auxiliary elements called reflectors and directors to a single slot antenna. We present two cases as the applications of optical slot antennas. One is the integration of slot antennas to plasmonic waveguides. This combination can be used as a basic unit for optical interconnection to free space and plasmonic via in multilayered plasmonic structures. The other is the integration of slot antennas to the electrode of light-emitting diodes (LEDs). Using slot antennas, we can control the polarization and direction of emissions from LEDs. Besides the above-mentioned two cases, we expect that optical slot antennas have possible applications to various photonic devices and can be essential elements in future integrated photonic circuits with nanometer scales.
We present optical slot antennas and their applications to photonic devices. We show that metallic nanoslots have the properties of a slot antenna by measuring the transmission spectra and far-field radiation patterns and then prove that they can be physically regarded as magnetic dipoles in the optical region. Additionally, we can generate directional radiations from optical slot antennas by adopting the geometry of radiofrequency Yagi-Uda antenna and properly adding auxiliary elements called reflectors and directors to a single slot antenna. We present two cases as the applications of optical slot antennas. One is the integration of slot antennas to plasmonic waveguides. This combination can be used as a basic unit for optical interconnection to free space and plasmonic via in multilayered plasmonic structures. The other is the integration of slot antennas to the electrode of light-emitting diodes (LEDs). Using slot antennas, we can control the polarization and direction of emissions from LEDs. Besides the above-mentioned two cases, we expect that optical slot antennas have possible applications to various photonic devices and can be essential elements in future integrated photonic circuits with nanometer scales.
Author Park, Q-Han
Kim, Jineun
Roh, Young-Geun
Park, Yeonsang
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  givenname: Jineun
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  givenname: Q-Han
  surname: Park
  fullname: Park, Q-Han
  organization: Department of Physics, Korea University, Anam-ro 145, Seoul 02841, Korea
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Snippet We present optical slot antennas and their applications to photonic devices. We show that metallic nanoslots have the properties of a slot antenna by measuring...
Abstract We present optical slot antennas and their applications to photonic devices. We show that metallic nanoslots have the properties of a slot antenna by...
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walterdegruyter
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StartPage 1617
SubjectTerms integration to photonic devices
magnetic dipole
metallic nanoslot
optical slot antenna
optical slot Yagi-Uda antenna
Title Optical slot antennas and their applications to photonic devices
URI http://www.degruyter.com/doi/10.1515/nanoph-2018-0045
https://doaj.org/article/bb28b70a7a054182bd877344b5918780
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