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TECHNICAL PROGRAM MONDAY 24 SEPTEMBER <strong>2012</strong><br />
GRAND BALLROOM F GRAND BALLROOM G HARBOUR ROOM A GRAND BALLROOM A<br />
8:30 AM - 10:00 AM<br />
Session ME: PON<br />
Session Chair: TBD<br />
8:30 AM - 10:00 AM<br />
Session MF: Quantum Dot Sources<br />
Session Chair: Huiyun Liu, University<br />
College London, London, UK<br />
8:30 AM - 10:00 AM<br />
Session MG: Plasmonic based<br />
Photovoltaics<br />
Session Chair: Mark L. Brongersma,<br />
Stanford University, Stanford, CA, USA<br />
8:30 AM - 10:00 AM<br />
Session MH: OI I - Devices<br />
Session Chair: Eric Johnson, Clemson<br />
University, Clemson, SC, USA<br />
ME1 8:30 AM - 8:45 AM<br />
Bidirectional Uncompressed HD Video<br />
Distribution over Fiber Employing<br />
VCSELs, J. Estaran, J. J. Vegas Olmos,<br />
G. A. Rodes and I. T. Monroy, Technical<br />
University of Denmark, Kgs Lyngby, Denmark<br />
We report on a bidirectional system in which<br />
VCSELs are simultaneously modulated with two<br />
uncompressed HD video signals. The results<br />
show a large power budget and a negligible<br />
penalty over 10 km long transmission link.<br />
MF1 8:30 AM - 9:00 AM (Invited)<br />
Quantum Dots for Lasers and Light-<br />
Emitting Diodes, N. N. Ledentsov, VI Systems<br />
GmbH, Berlin, Germany<br />
Self-organized quantum dots (QDs) applied to<br />
light-emitting devices extend their spectral range,<br />
temperature stability and allow new approaches<br />
including single photon emitters and multiwavelength<br />
lasers and light-emitting diodes.<br />
MG1 8:30 AM - 9:00 AM (Invited)<br />
Light Trapping in Plasmonic<br />
Photovoltaics, V. Ferry, Lawrence Berkeley<br />
National Laboratory, Berkeley, CA, USA<br />
Plasmonic and nanophotonic structures enable<br />
the manipulation and molding of light in<br />
nanoscale devices. These nanostructures are<br />
designed and integrated to achieve broadband<br />
photocurrent enhancement in ultrathin film<br />
photovoltaics.<br />
MH1 8:30 AM - 9:00 AM (Invited)<br />
Nano-Photonic Technologies for Optical<br />
Interconnects, Y. Fainman, University of<br />
California - San Diego, La Jolla, CA, USA<br />
ABSTRACT NOT AVAILABLE<br />
ME2 8:45 AM - 9:00 AM<br />
Extended Gain Bandwidth low Ripple<br />
Hybrid Raman-Parametric Amplifier<br />
Design for PON Applications, S. Peiris,<br />
N. Madamopoulos, City College of New<br />
York/CUNY, New York, NY, USA, N. Antoniades,<br />
College of Staten Island/CUNY, Staten Island, NY,<br />
USA, M. A. Ummy, New York City College of<br />
Technology, New York, NY, USA, R. Dorsinville<br />
and M. A. Ali, City College of New York/CUNY,<br />
New York, NY, USA<br />
A hybrid Raman-OPA amplifier with 190nm<br />
bandwidth, and 13-fold enhancement<br />
in a 7.5 nm thin-film absorber yielding a<br />
maximum absorption of 74.4%. Broadband and<br />
wide-angle absorption is demonstrated.<br />
MH2 9:00 AM - 9:15 AM<br />
A New Approach to Ge Lasers with Low<br />
Pump Power, X. Chen, Y. Huo, E. Fei,<br />
G. Shambat, K. Zang, X. Liu, Y. Chen,<br />
T. I. Kamins, J. Vuckovic and J. S. Harris,<br />
Stanford University, Stanford, CA, USA<br />
We present direct bandgap photoluminescence<br />
from carrier confinement in Ge/SiGe quantum<br />
wells (QWs) in a microdisk. Simulation and<br />
experimental results indicate this structure has<br />
great potential to serve as a low pump power Ge<br />
laser.<br />
ME4 9:15 AM - 9:30 AM<br />
Fiber-Pigtailed Optical Switch based on<br />
Gigantic Bloch-Surface-Wave-Induced<br />
Goos-Hanchen Shifts, Y. Wan, W. Kong,<br />
Z. Zheng, X. Zhao, Y. Liu and Y. Bian, Beihang<br />
University, Beijing, China<br />
On-off optical switching based on the Blochsurface-wave<br />
enhanced Goos-Hanchen effect is<br />
demonstrated for the first time by changing the<br />
medium in a flowcell that serves as the cladding<br />
of a truncated one-dimensional photonic crystal.<br />
MF3 9:15 AM - 9:30 AM<br />
Modelling the Gain Compression Effects<br />
in Semiconductor Quantum-Dot Lasers<br />
through a New Modulation Transfer<br />
Function, C. Wang, F. Grillot and J. Even,<br />
Institut National des Sciences Appliquees de<br />
Rennes, Rennes, France<br />
Impacts of gain compression on modulation<br />
properties of quantum dot lasers are investigated<br />
with a new modulation transfer function derived<br />
from a semi-analytical approach. Results show<br />
that non-linear gain causes severe degradations<br />
in laser dynamics.<br />
MG3 9:15 AM - 9:45 AM (Invited)<br />
Plasmonics for III-V Semiconductor Solar<br />
Cells, S. Mokkapati, H. F. Lu, S. Turner, L. Fu,<br />
H. H. Tan and C. Jagadish, Australian National<br />
University, Canberra, Australia<br />
Surface plasmons supported by metal nanoparticles<br />
can be used to enhance the performance of<br />
solar-cells based on III-V semiconductors. We<br />
present results on plasmonic quantum-dot solarcells<br />
and discuss the role of plasmonics for<br />
nanowire solar-cells.<br />
MH3 9:15 AM - 9:30 AM<br />
Low-Power Monolithic COMB Laser for<br />
Short-Reach WDM Optical Interconnects,<br />
A. E. Gubenko, S. S. Mikhrin, V. Mikhrin,<br />
I. L. Krestnikov and D. A. Livshits, Innolume<br />
GmbH, Dortmund, Germany<br />
16+ low-noise optical comb lines with 80 GHz<br />
spacing and 0 dBm/line output power are generated<br />
by a single InAs/GaAs quantum dot (QD)<br />
Fabry-Perot laser. Electrical power consumption<br />
is reduced dramatically down to 6 mW/line.<br />
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