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DESCRIPTION:Abstract – This talk focuses on the interaction of electromag
 netic waves with metamaterials and manipulating the polarization state of 
 light\, which are essential for on-chip photonics and quantum information 
 processing. By designing a metasurface based on geometrical-scaling-induce
 d phase modulations\, the transformation and distribution of different pol
 arization-entangled photon pairs have been realized with multichannel diel
 ectric metasurfaces. This is a significant development in applying metasur
 face to quantum networks. We also show a strategy to overcome the fundamen
 tal limit of polarization multiplexing capacity of metasurfaces by introdu
 cing the engineered noise to the precise solution of Jones matrix elements
 \, where the conventional restriction of polarization multiplexing roots f
 rom the dimension constraint of the Jones matrix. This approach implies a 
 new paradigm for high-capacity optical display\, information encryption\, 
 and data storage. As a practical application\, we also present a metasurfa
 ce that achieves a matte appearance in reflection while offering broadband
 \, perfect transmission\, showcasing its potential for various optical tec
 hnologies.\n\nReferences:\nY.J. Gao et al.\, Simultaneous generation of ar
 bitrary assembly of polarization states with geometrical-scaling-induced p
 hase modulation\, Physical Review X 10 (3)\, 031035 (2020)\nY.J. Gao\, et 
 al.\, Metasurface design for the generation of an arbitrary assembly of di
 fferent polarization states\, Physical Review B 104 (12)\, 125419 (2021)\n
 Y.J. Gao\, et al.\, Multichannel distribution and transformation of entang
 led photons with dielectric metasurfaces Physical Review Letters 129\, 023
 601 (2022)\nXiong\, et al.\, Breaking the limitation of polarization multi
 plexing in optical metasurfaces with engineered noise\, Science 379\, 294 
 (2023)\nChu\, et al.\, Diffuse reflection and reciprocity-protected transm
 ission via a random-flip metasurface\, Science Advances 7\, eabj0935 (2021
 )\nChu\, et al.\, Matte surfaces with broadband transparency enabled by hi
 ghly asymmetric diffusion of white light\, Science Advances 10\, eadm8061 
 (2024)\n\nCo-sponsored by: Advanced Science Research Center - the Graduate
  Center - City University of New York\n\nSpeaker(s): Mu Wang\n\nRoom: Audi
 torium\, Bldg: Advanced Science Research Center CUNY\, 85 St. Nicholas Ter
 race\, New York\, New York\, United States\, NY 10031\, Virtual: https://e
 vents.vtools.ieee.org/m/447321
LOCATION:Room: Auditorium\, Bldg: Advanced Science Research Center CUNY\, 8
 5 St. Nicholas Terrace\, New York\, New York\, United States\, NY 10031\, 
 Virtual: https://events.vtools.ieee.org/m/447321
ORGANIZER:viktoriia.rutckaia@gmail.com
SEQUENCE:13
SUMMARY:IEEE NY JOINT MTT AP PHO &amp; NANO CHAPTER - SEMINAR: Manipulating Lig
 ht with Optical Metasurfaces: from Classical to Quantum
URL;VALUE=URI:https://events.vtools.ieee.org/m/447321
X-ALT-DESC:Description: &lt;br /&gt;&lt;p&gt;Abstract &amp;ndash\; This talk focuses on the
  interaction of electromagnetic waves with metamaterials and manipulating 
 the polarization state of light\, which are essential for on-chip photonic
 s and quantum information processing. By designing a metasurface based on 
 geometrical-scaling-induced phase modulations\, the transformation and dis
 tribution of different polarization-entangled photon pairs have been reali
 zed with multichannel dielectric metasurfaces. This is a significant devel
 opment in applying metasurface to quantum networks. We also show a strateg
 y to overcome the fundamental limit of polarization multiplexing capacity 
 of metasurfaces by introducing the engineered noise to the precise solutio
 n of Jones matrix elements\, where the conventional restriction of polariz
 ation multiplexing roots from the dimension constraint of the Jones matrix
 . This approach implies a new paradigm for high-capacity optical display\,
  information encryption\, and data storage. As a practical application\, w
 e also present a metasurface that achieves a matte appearance in reflectio
 n while offering broadband\, perfect transmission\, showcasing its potenti
 al for various optical technologies.&lt;/p&gt;\n&lt;p&gt;References:&lt;br&gt;Y.J. Gao&amp;nbsp\
 ;&lt;em&gt;et al&lt;/em&gt;.\,&amp;nbsp\;&lt;em&gt;Simultaneous generation of arbitrary assembly
  of polarization states with geometrical-scaling-induced&amp;nbsp\;&lt;/em&gt;&lt;em&gt;ph
 ase modulation\,&amp;nbsp\;&lt;/em&gt;Physical Review X&amp;nbsp\;&lt;strong&gt;10&lt;/strong&gt;&amp;nb
 sp\;(3)\, 031035 (2020)&lt;br&gt;Y.J. Gao\,&amp;nbsp\;&lt;em&gt;et al&lt;/em&gt;.\,&lt;em&gt;&amp;nbsp\;Me
 tasurface design for the generation of an arbitrary assembly of different 
 polarization states\,&amp;nbsp\;&lt;/em&gt;Physical Review B&amp;nbsp\;&lt;strong&gt;104&lt;/stro
 ng&gt;&amp;nbsp\;(12)\, 125419 (2021)&lt;br&gt;Y.J. Gao\,&amp;nbsp\;&lt;em&gt;et al&lt;/em&gt;.\,&amp;nbsp\
 ;&lt;em&gt;Multichannel distribution and transformation of entangled photons wit
 h dielectric metasurfaces&amp;nbsp\;&lt;/em&gt;Physical Review Letters&amp;nbsp\;&lt;strong
 &gt;129&lt;/strong&gt;\, 023601 (2022)&lt;br&gt;Xiong\,&amp;nbsp\;&lt;em&gt;et al&lt;/em&gt;.\,&amp;nbsp\;&lt;em
 &gt;Breaking the limitation of polarization multiplexing in optical metasurfa
 ces with engineered noise&lt;/em&gt;\, Science&amp;nbsp\;&lt;strong&gt;379&lt;/strong&gt;\, 294 
 (2023)&lt;br&gt;Chu\, et al.\,&amp;nbsp\;&lt;em&gt;Diffuse reflection and reciprocity-prot
 ected transmission via a random-flip metasurface&lt;/em&gt;\, Science Advances&amp;n
 bsp\;&lt;strong&gt;7&lt;/strong&gt;\, eabj0935 (2021)&lt;br&gt;Chu\,&amp;nbsp\;&lt;em&gt;et al&lt;/em&gt;.\,
 &amp;nbsp\;&lt;em&gt;Matte surfaces with broadband transparency enabled by highly as
 ymmetric diffusion of white light&lt;/em&gt;\, Science Advances&amp;nbsp\;&lt;strong&gt;10
 &lt;/strong&gt;\, eadm8061 (2024)&lt;/p&gt;
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