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Prof. Maksim Skorobogatiy
PhD, MIT Physics 2001
MSc, MIT EECS 2000
MSc, McGill Physics 1997
BSc, RIT Physics 1995
Undgr, MFTI FOPF 1991-1994
CV
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Génie physique
Ecole Polytechnique de Montréal
C.P. 6079, succ. Centre-ville
Montréal (Québec)
Canada H3C 3A7
Tel: (514) 340-4711 (3327)
Fax: (514) 340-3218
E-Mail
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Chaire de recherche du Canada de niveau II en micro- et nano-photonique
Canada Research Chair Tier II in Micro- and Nano-photonics
Résumé des activités de notre recherche, Feb. 05, 1Mb
Resume of the group research activities, Feb. 05, 1Mb
PolyGuide fibers Overview of the microstructured optical fibers for datacom, sensing, plasmonics and smart textile applications fabricated in our group, Aug. 07, 11Mb
Prospective Students:
Outstanding MSc and PhD students are always
welcome to apply
. Our current focus is
in the domain of design and fabrication of microstructured and photonic crystal fibers for
various practical applications. We are also active in the experimental and theoretical
research in the area of nanooptics and plasmonics.
Books:
News Releases about our work:
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Karma Chameleon project. Smart textiles, Photonic Bandgap textiles, Feb. 2009
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Nature Photonics - Colour-tunable textiles, News and Views, Nov. 2008
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Physics Today - Photonic fabric, Back Scatter, Oct. 2008, page 108, © AIP 2008
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Laser Focus World - Low-loss porous terahertz fibers would turn tight corners, Apr. 2008
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Laser Focus World - Photonic-crystal fibers become biocompatible, Feb. 2007
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Photonics Spectra - Biodegradable Holey Fiber Enables Drug Delivery, Jan. 2007
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Nature Photonics -
Plasmonics: Sensors tune in, Oct. 2006
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Optics.org - Environmentally friendly fiber takes on medical role, July 2006
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Les possibilités infinies de la fibre microstructurée, Oct. 2006
The infinite potential of microstructured fibres, Oct. 2006
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Theory, manufacturing and application of photonic crystal fibers:
Our primary objective is to speed up the maturation of photonic crystal
technology and its penetration into the industrial sector. Research at the Engineering Physics
Department is broadened by our comprehensive research program in Photonic
Band Gap (PBG) materials and devices with applications in telecommunications, industry
and medicine.
Experimentally we focus on preform fabrication and fiber drawing of polymer
microstructured fibers for biomedical and sensing applications. We also pursue
fabrication of planar and
two dimensional photonic crystals for nanophotonics (plasmonics). Theoretically
our group pursues an effort in design of novel highly integrated photonic crystal
components based on fibers and planar waveguides, as well as modeling of the photonic crystal fiber
fabrication process including fluid dynamics of fiber drawing,
heat transfer in high power fiber links, and influence of imperfections on
fiber and planar device performance.
Some of the Photonic Crystal Fibers and systems fabricated in our group:
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Highly reflective photonic textiles based on Photonic Band Gap fibers, Futurotextiel 08 exhibition, Kortrijk, Belgium
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Color-tunable photonic textiles using Photonic Crystal Fibers
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"Colorful" solid core plastic Bragg fibers in the visible
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Bodegradable and Biocompatable Microstructured Fiber for In-Vivo Sensing
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Hollow Bragg Fiber for Low Loss Radiation Transmission from the Visible to THz
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Multicore Porous Fiber for Imaging and Sensing
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Multimode Microstructured Fiber for Sensing Applications
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Group Poster
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Software packages from our group:
PolyMOF - modesolvers for the Microstructured and Photonic Crystal Fibers, updated Aug. 2007
PolyFIT - statistical imperfection analysis sofware and high resolution 2D Pxtal images, updated Nov. 2005
Reviews of selected photonic technologies:
Bringing nanotechnology into fiber optics, updated Oct. 2009, 9Mb
Overview of the photonic textiles, updated March 2009, 21Mb
Overview of THz waveguides and applications, updated Apr. 2007, 2.1Mb
Overview of Microstructured Fibers for sensor applications, updated Feb. 2006, 1.6Mb
Slides from my graduate course "Indroduction to Photonic Crystals"
1) 1D Photonic Crystals (Multilayer stacks), updated Jan. 2005, 1Mb
2) Hollow planar waveguides and multilayer stacks, updated Oct. 2005, 1Mb
3) Quasi-1D Photonic Crystals (Bragg fibers), updated Feb. 2005, 4Mb
4) Battling Imperfection in Photonic Crystals, updated Oct. 2005, 6Mb
5) Some applications of PC's, 5Mb
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