Seminar Announcement
These events are organized by various sub-sets of the IEEE Toronto Section.
The contact person listed below is the volunteer who has arranged this event.
Please use the e-mail link provided if you have any questions, suggestions,
or concerns.
| Title
|
Optical Printed Circuit Board (O-PCB) and VLSI Photonics
an IEEE Lasers and Electro-Optics Society Distinguished Lecture |
| Speaker
|
Prof. El-Hang Lee,
Director of OPERA (Optics and Photonics Elite Research Academy)
INHA University, Incheon, South Korea |
| Day and Time
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Wednesday, July 2, 2008, 2:00 p.m. |
| Location
|
Room BA 1210, Bahen Centre for Information Technology
University of Toronto
40 St. George Street
map - select BA |
| Organizer
|
IEEE Circuits & Devices Chapter, co-sponsored by the Institute for Optical Sciences at the University of Toronto. |
| Contact
|
Emanuel Istrate, E-mail:
All are welcome. Refreshments will be served. |
| Abstract |
This lecture presents a comprehensive review and overview on the
cutting-edge frontier science and engineering of micro/nano-photonic
integration for VLSI photonic application. It discusses on the theory,
design, fabrication, and integration of micro/nano-photonic devices,
circuits, chips, and networks in the form of “VLSI photonic integrated
circuits”(VLSI-PICs) and “optical micro/nano-networks (O-MNNs)” of
generic and application-specific nature on a platform that we call
“optical printed circuit boards” (O-PCBs). These systems are designed
to be compact, intelligent, high-speed, light-weight, environmentally
friendly, low-powered, and low-cost as applicable for datacom,
telecom, transportation, aero-space, avionics, bio/medical, sensor, and
environmental systems. The O-PCBs, VLSI-PICs and O-MNNs process
optical signals through optical wires whereas the traditional E-PCBs,
VLSI-ICs, and electrical networks process electrical signals through
electrical wires. The VLSI photonic systems are designed to overcome
the limitations of the VLSI electrical systems and are also designed
to integrate convergent
IT/BT/NT micro/nano-devices, circuits, and chips for broad based
applications and usages. The new optical systems consist of 2-
dimensional planar arrays of optical wires, circuits and devices of
micro/nano-scale to perform the functions of sensing, storing,
transporting, processing, switching, routing and distributing optical
signals on flat modular boards or substrates. The integrated optical
components include micro/nano-scale light sources, waveguides,
detectors, switches, modulators, sensors, directional couplers, multi-
mode interference devices, AWGs, wavelength filters, micro-ring
resonator devices, photonic crystal devices, plasmonic devices, and
quantum devices, made of polymer, silicon and other semiconductor
materials. Some molecular devices are also considered. We discuss
scientific and technological issues, challenges, and progresses
regarding the miniaturization, interconnection and integration of
micro/nano-scale photonic devices, circuits, and networks leading to
ultra-small and very large
scale integration and discuss their potential applications mentioned
above. The issues include the compatibility issues between micro/nano-
devices such as materials mismatch, size mismatch, mode mismatch,
optical mismatch, mechanical/thermal mismatch and the nano-optical
effects such as micro-cavity effects, non-linear effects, and quantum
optical effects in nano-scale devices. Scaling rules for the
miniaturization and integration of the micro/nano-photonic systems
will also be discussed in comparison with those of the micro/nano-
electronic systems. New physics, visions, issues and challenges of the
optical micro/nano-optical circuits, networks and systems will be
discussed along with the historical perspectives of the electrical
technology. Recent progresses and examples will be presented along
with the future outlook.
|
| Biography |
B.S.E.E. (summa cum laude), Seoul National University, Korea, 1970;
M.S., M.Phil., and Ph.D., Applied Physics, Yale University, 1973, 1975
and 1977, respectively, under Prof. John. B. Fenn (Yale Nobel
Laureate, Chemistry, 2002) and Prof. Richard. K. Chang (Henry Ford II
Professor, former student of Prof. N. Bloembergen, Harvard Nobel
Laureate, Physics, 1981). Conducted
teaching, research and management at Yale, Princeton, MEMC, AT&T Bell,
ETRI (vice president), KAIST, and at INHA in the fields of
semiconductor physics, materials, devices, optoelectronics, photonics,
and optical communication. Founding Dean, School of Communication and
Information Engineering; Dean, Graduate School of the Information
Technology and Telecommunications; Founding Director, OPERA (Optics
and Photonics Elite Research Academy) and m-PARC (micro/nano-Photonics
Advanced Research Center); Vice President, Optical Society of Korea;
Founding President, IEEE-LEOS Korea; Founding Director, SPIE-Korea.
230 international refereed SCI-covered journal and review papers; 640
international conference presentations; 100 plenary, keynote, and
invited talks in international conferences; Edited books and
international proceedings; 120 international patents; 80 services as
international conference chair, committee member, and advisor. Fellow
of the APS (USA), IEEE (USA), IEE (UK), OSA (USA), SPIE (USA), KPS
(Korea), IEEK (Korea), and Life Fellow, Korean Academy of Science and
Technology. 15 national and international awards, including the King
Se-Jong Award, Incheon Grand Science Award, and the Presidential Medal
of Honor (Science), Korea; the IEEE Third Millennium Medal, and the
2007 IEEE/LEOS Distinguished
Lecturer Award, USA.
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