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,
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| Title
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Fabless IC Design for Wireless and Optic-Fiber Communications
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| Speaker
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Dr. Zhi-Gong Wang,
Professor, Institute of RF- & OE-ICs, Southeast University,
Nanjing, China
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| Day and Time
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Thursday, October 27, 2005, at 5:10 p.m. - 6:00 p.m.
(refreshments will be served)
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| Location
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Room SF1105, Sanford Fleming Building,
University of Toronto, 10 King's College Road
Enter from King's College Road, 1 block east of St. George Street
map - select SF
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| Organizer
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Solid-State Circuits Chapter
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| Contact
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Raymond Chik, Solid-State Circuits Chapter Chair, E-mail: chik@ieee.org
Everyone welcome...
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| Abstract
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Since about one decade, one important development trend of IC
industry is that the worldwide accept of the mode of fabless IC design
plus foundry-type IC fabrication. This so-abbreviated F&F-mode has a great
impact not only on IC industry but also on the IC-related research and
education branches. Utilizing fabless IC design, for example, most
universities can make IC study in most advanced processes but in bearable
cost. The environment required for fabless IC design includes hardware of
workstations, PCs and Internet networks, the software of CAD/EDA-tools,
MPW(Multi-Project Wafer)-mode IC realization approaches, and IC
measurement labs. For the design of digital dominant VLSI needs
EDA(Electronic Design Automation)-tools on system and logic level, the
design of RFICs and UHSICs generally needs still CAD-tools on circuit and
layout level. The effectiveness of MPW is verified for fabless IC design.
For measurement of RFICs and UHSICs, microwave probe station, RF probes of
different configurations, and different instruments such as RF signal
generators, pulse pattern generators, bit error detectors, oscilloscopes,
spectra analyzers, network analyzers, noise figure analyzers, and so on.
For wireless transmission, the basic RFICs include LNA (low noise
amplifier), up-conversion mixer, down-conversion mixer, AGC(automatic gain
control)-amplifier, demodulator, modulator, power amplifier, frequency
synthesizer, and so on. For optic-fiber communications, such key circuits
as multiplexer, laser diode driver, trans-impedance amplifier, limiting
amplifier, clock recovery, data decision, demultiplexer, and so on are
required. For the design of all these RFICs and UHSICs, not only
high-frequency transistors but also a series of passive devices such as
inductors, varactors, transmission lines are needed. Such circuit
techniques as frequency compensation, peaking, negative feedback,
impedance matching should be utilized and innovated.
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| Biography
|
Professor Zhi-Gong Wang was born in Henan, China, on May 6, 1954. He received
his M.-Eng. degree in radio engineering from Nanjing Institute of
Technology (now, Southeast University), Nanjing, China, in 1981, and his
Dr.-Ing. degree in electronic engineering from Ruhr-University Bochum,
Germany, in 1990. From 1977 to 1981, he worked on radio communication
techniques and computer aided circuit designs in Nanjing Institute of
Technology. During 1982-1984 he worked as a lecturer on semiconductor
circuit techniques in Tongji-University, Shanghai. From 1985 to 1990, he
worked on high-speed silicon bipolar circuit designs for multigigabit/s
optic fiber communication in Ruhr-University Bochum. From Oct. 1990 to
Sept. 1997, he was with Fraunhofer-Institute of Applied Solid State
Physics, Freiburg, Germany, working on high-speed GaAs circuit designs.
Since Oct. 1997, he is professor of Southeast University, Nanjing, China.
He is Senior Member of Chinese Institute of Electrical and Electronical
Engineer and IEEE, and Chairman of the Advisory Committee of Electrical
and Electronic Basic Courses of Chinese Universities. He is the author or
co-author of 8 books and 230 papers, and inventor of 15 patents. Recently,
he is involving in IC design for 155 Mb/s to 40 Gb/s optic-fiber
transmission systems and for wireless applications and microwave systems.
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