Digital micromirror device as a diffractive reconfigurable optical switch for telecommunication

Research output: Contribution to journalArticle

7 Citations (Scopus)

Abstract

Digital micromirror devices (DMDs) by their high-switching speed, stability, and repeatability are promising devices for fast, reconfigurable telecommunication switches. However, their binary mirror orientation is an issue for conventional redirection of a large number of incoming ports to a similarly large number of output fibers, like with analog microopto electro-mechanical systems. We are presenting here the use of the DMD as a diffraction-based optical switch, where Fourier diffraction patterns are used to steer the incoming beams to any output configuration. Fourier diffraction patterns are computer-generated holograms that structure the incoming light into any shape in the output plane. This way, the light from any fiber can be redirected to any position in the output plane. The incoming light can also be split to any positions in the output plane. This technique has the potential to make an "any-to-any," true nonblocking, optical switch with high-port count, solving some of the problems of the present technology.

Original languageEnglish (US)
Article number011104
JournalJournal of Micro/Nanolithography, MEMS, and MOEMS
Volume13
Issue number1
DOIs
StatePublished - 2014

Fingerprint

Digital devices
Optical switches
Telecommunication
telecommunication
switches
Diffraction patterns
output
Fibers
Holograms
diffraction patterns
Mirrors
Diffraction
Switches
fibers
analogs
mirrors
configurations
diffraction

Keywords

  • diffraction
  • Fourier hologram
  • nonblocking
  • optical switch

ASJC Scopus subject areas

  • Electrical and Electronic Engineering
  • Mechanical Engineering
  • Electronic, Optical and Magnetic Materials
  • Condensed Matter Physics
  • Atomic and Molecular Physics, and Optics

Cite this

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abstract = "Digital micromirror devices (DMDs) by their high-switching speed, stability, and repeatability are promising devices for fast, reconfigurable telecommunication switches. However, their binary mirror orientation is an issue for conventional redirection of a large number of incoming ports to a similarly large number of output fibers, like with analog microopto electro-mechanical systems. We are presenting here the use of the DMD as a diffraction-based optical switch, where Fourier diffraction patterns are used to steer the incoming beams to any output configuration. Fourier diffraction patterns are computer-generated holograms that structure the incoming light into any shape in the output plane. This way, the light from any fiber can be redirected to any position in the output plane. The incoming light can also be split to any positions in the output plane. This technique has the potential to make an {"}any-to-any,{"} true nonblocking, optical switch with high-port count, solving some of the problems of the present technology.",
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AU - Carothers, Daniel

AU - Wissinger, John W

AU - Peyghambarian, Nasser N

PY - 2014

Y1 - 2014

N2 - Digital micromirror devices (DMDs) by their high-switching speed, stability, and repeatability are promising devices for fast, reconfigurable telecommunication switches. However, their binary mirror orientation is an issue for conventional redirection of a large number of incoming ports to a similarly large number of output fibers, like with analog microopto electro-mechanical systems. We are presenting here the use of the DMD as a diffraction-based optical switch, where Fourier diffraction patterns are used to steer the incoming beams to any output configuration. Fourier diffraction patterns are computer-generated holograms that structure the incoming light into any shape in the output plane. This way, the light from any fiber can be redirected to any position in the output plane. The incoming light can also be split to any positions in the output plane. This technique has the potential to make an "any-to-any," true nonblocking, optical switch with high-port count, solving some of the problems of the present technology.

AB - Digital micromirror devices (DMDs) by their high-switching speed, stability, and repeatability are promising devices for fast, reconfigurable telecommunication switches. However, their binary mirror orientation is an issue for conventional redirection of a large number of incoming ports to a similarly large number of output fibers, like with analog microopto electro-mechanical systems. We are presenting here the use of the DMD as a diffraction-based optical switch, where Fourier diffraction patterns are used to steer the incoming beams to any output configuration. Fourier diffraction patterns are computer-generated holograms that structure the incoming light into any shape in the output plane. This way, the light from any fiber can be redirected to any position in the output plane. The incoming light can also be split to any positions in the output plane. This technique has the potential to make an "any-to-any," true nonblocking, optical switch with high-port count, solving some of the problems of the present technology.

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