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ABSTRACT The Chromebook is a new, faster computer. It
starts in
seconds, and offers thousands of apps, including Web applications and
Android
apps. The Chrome OS operating system is automatically updated to ensure
the
computer remains secure and gets better over time. The Chrome OS
hardware team
makes Chromebook reference designs and develops new technologies for
them. The
team was heavily involved in the USB-C development and Google
was an early
adopter in laptops, tablets and phones. The USB-C connector is used to
provide up to 100W of power, high speed signals for data and
video, and
low speed signals for configuration. It therefore presents many SI, PI
and EMC
challenges. Starting from a system view of USB-C the presentation will
introduce some of the research done by the Google Signal Integrity and
Power
teams as they implemented it in devices. It will conclude with some
forward-looking
speculation on SI tools.
 Mark Hayter is Senior
Engineering Director in the Chrome OS Hardware team at Google. The team
is
responsible for reference implementations and developing new
technologies for
Chromebooks. Prior to that he was involved in systems architecture at
several
semiconductor companies, being VP of Systems Engineering at P.A. Semi,
Inc.
(acquired by Apple Inc.), Senior Manager of Hardware Systems
Engineering at
Broadcom Corporation and System Architect at SiByte, Inc. Earlier,
Hayter was
at the Digital Equipment Corporation Systems Research Center. Hayter
holds a
PhD from the University of Cambridge Computer Laboratory.
Time reversal may strike us
as a frivolous idea since we are unable to reverse the flow of time in
our universe.
However, our computational models of the laws of physics –
notably our models
of wave propagation – empower us to commute freely between
virtual past and
virtual future, and thus to interchange cause and effect. This
capability has
opened new frontiers in acoustic and electromagnetic wave engineering.
Over the
past twenty-five years, scientists and engineers have developed novel
concepts
that exploit the time symmetry of the wave equation and the resulting
ability
to reverse causality in the virtual realm. The talk will explore the
features
and challenges of computational time reversal, demonstrate the
methodology by
means of live simulation examples, and discuss its applications in
real-world
engineering, notably in imaging, remote sensing, EMC, and
electromagnetic field
structure synthesis.
 Wolfgang
J. R. Hoefer is Professor Emeritus at the University of
Victoria, Canada.
He studied Electrical Engineering at the RWTH Aachen, Germany, and the
University of Grenoble, France. In 1969 he joined the University of
Ottawa,
Canada, as a Faculty member and was Chair of Electrical Engineering
from 1978
to 1981. In 1992 he joined the University of Victoria as Professor and
NSERC
Industrial Research Chair in RF Engineering, and founded the
Computational
Electromagnetic Research Laboratory (CERL) which he directed until
2006. From
2009 to 2012 he was Principal Scientist and I^3 Department Director at
the
Institute of High Performance Computing, Singapore. He was President of
Faustus
Scientific Corporation from 1967 to 2017. He held visiting appointments
at the
Universities of Grenoble, Rome Tor Vergata, Nice-Sophia Antipolis,
Perugia,
Munich and Duisburg, the Ferdinand Braun Institute in Berlin, the ETH
Zürich,
AEG-Telefunken, CRC Ottawa, the Agency of Science, Technology and
Research
(A*STAR) of Singapore, and the Georgia Institute of Technology,
Atlanta, USA.He is a Life Fellow of IEEE, and a Fellow of the Royal Society of Canada, the Canadian Academy of Engineering, the German Academy of Science and Engineering (ACATECH), the Advanced System Institute of British Columbia, and the Electromagnetics Academy (MIT). He served as MTT Distinguished Microwave Lecturer, and received the MTT Distinguished Educator Award, the MTT Pioneer Award, and the McNaughton Gold Medal of IEEE Canada. He is also the recipient of the Peter B. Johns Prize, the ACES Mainstay Award, and the A*STAR Most Inspiring Mentor Award. He holds an honorary doctorate (Dr.-Ing. h.c.) from the Technische Universität München, Germany.
ABSTRACT In electromagnetic compatibility, reside
some of the most complicated electromagnetic analysis problems. In
designing
highly complex electromagnetic systems, some of the side effects of
coupling,
radiation, and interference are unintended.
The challenge in EMC research is the mitigation of
these unwanted side
effects. These side effects generally give rise to the deterioration of
the
performance or even failure of a system. Given symptoms of degraded performance,
an EMC engineer is tasked to identify the root causes and find remedies. Hence, an EMC engineer to
a dysfunctional
electrical system is very much like a doctor to a malaise human body. To help EMC engineers identify the
root-cause of the symptoms, it is best to provide EMC engineers with as
much
data as possible. These data can be collected experimentally with
broadband or
time-domain techniques. Field scanning techniques have been used to
collect
these data, and they can be painfully slow. A prerogative is to design
systems
that can expedite the collection of these data. These data can be collected passively or
actively. In passive data collection, as little interference to the
operation
of the system is done. In active data collection, signals can be
injected into
the system to precipitate different responses from the system. Also, to
get as
much response from the system, data should be collected to be as close
to the
source of the noise as possible. Given the massive amount of data that
these experiments can generate, the onus is upon the theorists to
analyze them
and make sense of these data. There
are
a whole sleuth of methods that can be used to analyze these data. One
possible
candidate is the characteristic mode analysis.
Another possibility is the use of vector fitting
method, model order
reduction, and compact modeling to come up with simple models that can
explain
the character of the data collected.
Synthesis methods can also be used to construct
these simple models to
match the experimental data. Also,
many
methods developed in inverse scattering/source can be used to help
advance this
field. Analysis methods for EMC are generally
slow. Hence, pressing research to expedite these analysis methods is
needed. Fast
algorithms in both CEM and
inverse analysis are needed. To
expedite
the analyses, advancement in large scale computing such as massively
parallel
computing can be used. Moreover,
ideas
from recent advances in expert systems and machine learning can
transferred to
EMC to solve pressing difficult problems. BIOGRAPHY  W.C.
Chew received all his degrees from MIT.
His research interests are in wave physics, specializing in fast
algorithms for
multiple scattering imaging and computational electromagnetics in the
last 30
years. His recent research interest is in combining quantum theory with
electromagnetics, and differential geometry with computational
electromagnetics. After MIT, he joined Schlumberger-Doll Research in
1981. In
1985, he joined U Illinois Urbana-Champaign, was then the director of
the
Electromagnetics Lab from 1995-2007.
During 2000-2005, he was the Founder Professor,
2005-2009 the YT Lo
Chair Professor, and 2013-2017 the Fisher Distinguished Professor.
During
2007-2011, he was the Dean of Engineering at The University of Hong
Kong. He
joined Purdue U in August 2017 as a Distinguished Professor. He has
co-authored
three books, many lecture notes, over 400 journal papers, and over 600
conference papers. He is a fellow of various societies, and an ISI
highly cited
author. In 2000, he received the IEEE Graduate Teaching Award, in 2008,
he
received the IEEE AP-S CT Tai Distinguished Educator Award, in 2013,
elected to
the National Academy of Engineering, and in 2015 received the ACES
Computational Electromagnetics Award. He received the 2017 IEEE
Electromagnetics Award. He now is the 2018 IEEE AP-S President.
Considering the trend of
wireless area network shrinkage in coverage to increase capacity and
speed,
Zhang proposed the concept of wireless chip area network (WCAN) in
2002. WCAN
uses wireless technology to overcome the bottleneck of wired technology
to
realize interconnects among circuit cores in a chip (Intra-chip) or
among
different chips in a module (Inter-chip). WCAN, as a new paradigm for
wireless
communications and RF microelectronics, has begun to receive
considerable
attention recently. This talk will provide an introduction to WCAN.
Emphasis
will be given to the fundamental research in the characterization of
chip-scale
radio channels for WCAN. It is shown that the guided waves dominate the
chip-scale radio propagation. This talk will also touch on some key
issues in
the design of WCAN using modern integrated circuit technology such as
coupling
mechanisms and effects between on-chip antenna and inductor or coplanar
waveguide.
 Yueping
Zhang is a full
Professor of Electronic Engineering with the School of Electrical and
Electronic Engineering at Nanyang Technological University, Singapore,
a
Distinguished Lecturer of the IEEE Antennas and Propagation Society
(IEEE
AP-S), and a Fellow of IEEE.Prof. Zhang was a Member of the Field Award
Committee of the IEEE AP-S
(2015-2017), an Associate Editor of the IEEE Transactions on Antennas
and
Propagation (2010-2016), and the Chair of the IEEE Singapore MTT/AP
joint
Chapter (2012). Prof. Zhang was selected by the Recruitment Program of
Global
Experts of China as a Qianren Scholar at Shanghai Jiao Tong University
(2012).
He was awarded a William Meng Visiting Fellowship (2005) and appointed
as a
Visiting Professor (2014) by the University of Hong Kong. Prof. Zhang has published numerous papers,
including two invited papers in
the Proceedings of the IEEE and one invited paper in the IEEE
Transactions on
Antennas and Propagation. He holds 7 US patents. He received the Best
Paper
Award from the 2nd IEEE/IET International Symposium on Communication
Systems,
Networks and Digital Signal Processing, July 18–20, 2000,
Bournemouth, U.K.,
the Best Paper Prize from the 3rd IEEE International Workshop on
Antenna
Technology, March 21–23, 2007, Cambridge, U.K., and the Best
Paper Award from
the 10th IEEE Global Symposium on Millimeter-Waves, May
24–26, 2017, Hong Kong,
China. He received the prestigious IEEE AP-S Sergei A. Schelkunoff
Prize Paper
Award in 2012.
Dr. Archambeault has authored or co-authored a number of papers in computational electromagnetics, mostly applied to real-world EMC applications. He currently serves as the President of the EMC Society. He is the author of the book “PCB Design for Real-World EMI Control” and the lead author of the book titled “EMI/EMC Computational Modeling Handbook”.
Full
professor at INSA-Toulouse (French engineering institute) since 2000,
Department of Electrical and Computer Engineering, I teach analog
& digital
electronics, IC testability & reliability, and analog &
RF CMOS design.
CEO of
INSA Euro-Méditerranée, Fès, Morocco
(2014-2017), I was responsible for the
overall leadership and management of this new engineering institute.
This
includes curriculum development, student recruitment, staff and student
development, research leadership as well as national and international
professional and academic linkages. My research interests at LAAS – CNRS laboratory in Toulouse include signal integrity in nano-scale CMOS ICs, electromagnetic compatibility and reliability of ICs, and more recently energy harvesting. I have authored and co-authored 3 books, more than 100 publications in peer-reviewed journals & conference proceedings and supervised 13 PhD theses and 8 M.Sc. theses.
In 2003 he
was appointed as (part-time, full research) professor, Chair for EMC at
the
University of Twente. At
the University
of Twente he lectures the courses Transmission Media, and EMC, and
manages
several externally funded research projects, with 1 researcher and 8
PhD
student-researchers. Over 300 papers have been published at
international
conferences or peer reviewed journals. He holds patents on
reverberation
chambers, on preventing interference in radars, and on protecting
rotating
installations against the effects of direct lightning.
From 1991 to 1998, he was an Assistant
Professor with the
Dept. of Electronics, Politecnico di Torino, Turin, Italy. In 1998, he
joined
Politecnico di Milano, Milan, Italy, where he is currently a Full
Professor of
Circuit Theory and Electromagnetic Compatibility (EMC) at the Dept. of
Electronics, Information, and Bioengineering, and Chair of the B.Sc.
and M.Sc.
Study Programmes in Electrical Engineering, term 2015-20. He is the
author or
coauthor of more than 200 papers published in international journals
and
conference proceedings. His research interests are in the field of EMC
and
include field-to-wire coupling and crosstalk, conducted immunity and
emissions
in multi-wire structures, statistical techniques for EMC, and
experimental
procedures and setups for EMC testing. His research activity is mainly
related
to Aerospace, Automotive, Energy, and Railway industry sectors. Dr.
Pignari is a recipient of the 2005 and 2016 IEEE EMC Society
Transactions Prize
Paper Award, and a 2011 IEEE EMC Society Technical Achievement Award.
He is
currently serving as an Associate Editor of the IEEE Transactions on
Electromagnetic Compatibility. From 2010 to
2015 he served as the IEEE EMC Society Chapter Coordinator. From 2007
to 2009
he was the Chair of the IEEE Italy Section EMC Society Chapter. He has
been
Technical Program Chair of the ESA Workshop on Aerospace EMC in 2009,
2012, and
2016, Technical Program Chair of EMC’ Beijing in 2017, and a
Member of the
Technical Program Committee of the Asia Pacific EMC Week since 2010. He
is
currently serving as the Italian URSI Officer for Commission E
(Electromagnetic
Noise and Interference), term 2015-18.  Farhad
Rachidi
(M’93–SM’02–F’10) received the M.S. degree in
electrical engineering and the Ph.D. degree from the Swiss Federal
Institute of
Technology, Lausanne, Switzerland, in 1986 and 1991, respectively. He
was with
the Power Systems Laboratory, Swiss Federal Institute of Technology,
until
1996. In 1997, he joined the Lightning Research Laboratory, University
of
Toronto, Toronto, ON, Canada. From 1998 to 1999, he was with Montena
EMC,
Rossens, Switzerland. He is currently a Titular Professor and the Head
of the
EMC Laboratory with the Swiss Federal Institute of Technology,
Lausanne,
Switzerland. He has authored or co-authored over 180 scientific papers
published in peer-reviewed journals and over 380 papers presented at
international conferences.Dr. Rachidi is currently a member of the Advisory Board of the IEEE TRANSACTIONS ON ELECTROMAGNETIC COMPATIBILITY and the President of the Swiss National Committee of the International Union of Radio Science. He has received numerous awards including the 2005 IEEE EMC Technical Achievement Award, the 2005 CIGRE Technical Committee Award, the 2006 Blondel Medal from the French Association of Electrical Engineering, Electronics, Information Technology and Communication (SEE), the 2016 Berger Award from the International Conference on Lightning Protection, the 2016 Best Paper Award of the IEEE Transactions on EMC, and the 2017 Motohisa Kanda Award for the most cited paper of the IEEE Transactions on EMC. In 2014, he was conferred the title of Honorary Professor of the Xi’an Jiaotong University in China. He served as the Vice-Chair of the European COST Action on the Physics of Lightning Flash and its Effects from 2005 to 2009, the Chairman of the 2008 European Electromagnetics International Symposium, the President of the International Conference on Lightning Protection from 2008 to 2014, the Editor-in-Chief of the Open Atmospheric Science Journal (2010-2012) and the Editor-in-Chief of the IEEE TRANSACTIONS ON ELECTROMAGNETIC COMPATIBILITY from 2013 to 2015. He is a Fellow of the IEEE and of the SUMMA Foundation, and a member of the Swiss Academy of Sciences.  Dr.
William A. Radasky, Ph.D., P.E., IEEE Life
Fellow, Lord Kelvin AwardeeWilliam Radasky began his scientific and
engineering career in 1968 at the Air Force Weapons Laboratory (AFWL)
in
Albuquerque, New Mexico as an Air Force Officer.
He worked with the early high-altitude
electromagnetic pulse (HEMP) codes, which calculate the HEMP
environments on
the ground due to a nuclear burst at high altitudes.
From 1972 through 1975, he worked for
Mission Research Corporation (MRC) in Albuquerque, New Mexico and
subsequently
in Santa Barbara, California. He
worked
on a variety of EMP phenomenology, system assessment and protection
projects
dealing with nuclear bursts at all altitudes, and with different
military systems. After
consulting from 1975-1977, he joined JAYCOR in 1977 as a Division Vice
President, opening and managing the Santa Barbara office, he continued
his work
advancing the state of the art of all types of EMP phenomenology and
systems
applications. He led standardization efforts to define the
high-altitude EMP
environment waveforms for aircraft and other DoD applications. In addition he developed
the current
injection levels for time-urgent C4I systems (MIL-STD-188-125-1 and -2). In 1984, Dr. Radasky founded a new
company, Metatech Corporation, in Goleta, California
(Santa Barbara County) where he is President
and Managing Engineer. At Metatech, Dr. Radasky continued his EMP work
protecting military systems, but also began his work in protecting the
critical
infrastructures from a range of severe EM environments.
This included new work to determine the
effects of severe geomagnetic storms on power systems, the effects on
Intentional EMI (IEMI) on the critical infrastructures, and the
non-linear behavior
of grounding systems to high-level lightning strokes.
In addition, he has spent substantial efforts
volunteering his time for standardization bodies such as the IEC, the
IEEE and
Cigré to make high-power EM protection part of the
discipline of EMC. He
also contributed to the U.S. Congressional
EMP Commission work from 2001-2008 and in 2017, as a Senior Staff
member. Dr.
Radasky has most recently been involved in the development of
commercial
electromagnetic compatibility (EMC) standards with the International
Electrotechnical Commission (IEC) in Geneva, Switzerland to protect
commercial
systems from all types of electromagnetic threats, including those from
the
high-altitude electromagnetic pulse (HEMP) and high-power
electromagnetic (EM)
weapons, which create intentional electromagnetic interference (IEMI). He has served as Chairman
of SC 77C, “EMC:
High Power Transient Phenomena,” beginning when the
subcommittee was
established in 1992 until 2016. In October 2004, Dr. Radasky was
awarded the
Lord Kelvin Medal in Seoul, South Korea by the IEC for exceptional
service in
the development of international standards.
From
1993 to 1998, he was with the C-Lab, a Joint Research and Development
Institute
of the University of Paderborn and the Siemens Nixdorf
Informationssysteme AG,
Paderborn, Germany, where his responsibilities included research
activities on
numerical field calculation and the radiation analysis of printed
circuit
boards. Since 1998, he has been with the Federal Office of Bundeswehr
Equipment,
Information Technology and In-Service Support (BAAINBw). From 2011 to
2017 he
was head of the directorate on Nuclear Effects, High-Power
Electromagnetics and
Fire Protection of the Bundeswehr Research Institute for Protective
Technologies and CBRN-Protection (WIS), Munster, Germany. In 2017 he
took over
responsibility as head of the directorate on Detection.
He is the author or coauthor of more than 150
papers published in international journals and conference proceedings
(orcid.org/0000-0001-6702-3715). His research interests include
investigations
of electromagnetic field theory, High-Power Electromagnetics,
investigations of
short pulse interaction on electronics, and impulse radiation and
electromagnetic interferences risk management.  Tzong-Lin
Wu, received the B.S.E.E. and
Ph.D. degrees from National Taiwan University (NTU), in 1991 and 1995,
respectively. From 1995 to 1996, Tzong-Lin was a Senior Engineer at
Micro-electronics Technology Inc., in Hsinchu, Taiwan. In 1996, after
receiving
his Ph.D. degree, he joined the Central Research Institute of the
Tatung
Company, Taipei, Taiwan, where he was involved in the analysis and
measurement
of electromagnetic compatibility/electromagnetic interference (EMC/EMI)
problems of high-speed digital systems. In 1998, he decided in favor of
an
academic career and accepted a position at the Electrical Engineering
Department, National Sun Yat-Sen University. Since 2006, he has been a
Professor in the Department of Electrical Engineering and Graduate
Institute of
Communication Engineering (GICE), NTU. In Summer 2008, he was a
Visiting
Professor with the Electrical Engineering Department, University of
California
at Los Angeles (UCLA). His research interests include EMC/EMI and
signal/power
integrity design for high-speed digital/optical systems. Tzong-Lin was
appointed as the Director of the GICE and Communication Research Center
in NTU
in 2012.Tzong-Lin received the Excellent Research Award and the Excellent Advisor Award from National Sun Yat-Sen University in 2000 and 2003, respectively, the Outstanding Young Engineers Award from the Chinese Institute of Electrical Engineers in 2002, and the Wu Ta-You Memorial Award from the National Science Council (NSC) in 2005, Outstanding Research Award from NSC in 2011, 2014, and 2017. the IEEE Transactions on Advanced Packaging Best Paper Award in 2011, Outstanding Research Innovation Award from NTU in 2013, Outstanding Technology Transfer Contribution Award from NSC in 2013, 2014 Outstanding Teaching Award in NTU (top 1%), and 2015 IEEE EMC Society Motohisa Kanda Award for a IEEE T-EMC paper with highest citation for those published papers in past 5 years. He has served as the Chair of the Institute of Electronics, Information and Communication Engineers (IEICE) Taipei Section in 2007-2011, the Treasurer of the IEEE Taipei Section in 2007-2008. He was a member of the Board of Directors of the IEEE Taipei Section in 2009-2010 and 2013-2018, and the member of Board of Directors (BoD) of IEEE EMC Society in 2016-2020. He served the IEEE EMC Society as a Distinguished Lecturer for the period 2008–2009. He was Co-Chair of the 2007 IEEE Electrical Design of Advanced Packaging and Systems (EDAPS) workshop, General Chair of the 2015 Asia Pacific EMC Symposium (APEMC), and Technical Program Chair of the 2010 and 2012 IEEE EDAPS Symposiums. He is now the Associate Editor of IEEE Transactions on EMC and IEEE Transactions on CPMT, and the Editor-in-Chief of International Journal of Electrical Engineering (IJEE). Dr. Wu is IEEE Fellow. |
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Copyright © 2018 Joint IEEE EMC & APEMC |
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Dr.
Bruce Archambeault
Sonia
Delmas Ben Dhia 
Jun
Fan
Frank
Leferink
Sergio
A. Pignari 
Dr.
Frank Sabath