How can the control field increase its impact and find suitable funding opportunities?
Tuesday August 26 at 16:00, Auditorium 2
Organizers:
- Francoise Lamnabhi-Lagarrigue, Laboratoire des Signaux et Systèmes – CNRS, EECI, Supelec, Université Paris-Sud, Gif-sur-Yvette, FR. lamnabhi@lss.supelec.fr
- Paul M.J. Van den Hof, Eindhoven University of Technology, DE. p.m.j.vandenhof@tue.nl
Summary: Systems and control is a high-tech field of science and engineering that is playing an increasingly important role in a growing
number of technology and social-economic developments. Nowadays large complex physical systems are more and more
interacting with an increasing and considerable number of distributed computing elements for monitoring, control and
management. The elements of the physical systems are connected by the exchange of material, energy, or momentum while
the elements of the control and management system are connected by communication networks which sometimes impose
restrictions on the exchange of information. Prototype systems are smart grid and power plants, water management, traffic
management (with cars, airplane or ships), smart manufacturing process with many cooperating elements (as e.g. robots,
machines, warehouses, conveyer belts), large processing plants with many process units, buildings with advanced distributed
control, etc. These systems exhibit large spatially distributed physical systems with complex dynamics, distributed, supervision
and management control, partial autonomy of the subsystems, dynamic reconfiguration of the overall system on different timescales,
possibility of emerging behaviours, evolutionary engineering, extension, improvement of the overall system.
By better design, coordination and management of these systems, the day to day life can be improved significantly by better
services, lower consumption of energy and resources and lower emission. These systems pose however enormous research and
technical development challenges for systems engineering and management due to their size, distributed and multi-domain nature,
safety requirements, continuous evolution and complex dynamics. The research challenges concern, in particular, modelling and
simulation, new approaches to system management and control, architectures and algorithms to ensure robustness, integrity and
stability, verification and validation, systems integration, and new developments in human-machine interaction and embedding
of humans into planning and optimization. Although control researchers participate in all these areas, the international control
society cannot claim to embody all these domains. Interdisciplinary cooperations are more and more necessary.
Funding agencies are a key tool for fostering these new RTD developments. However there seems to be a trend that government
and funding agencies move towards favouring funding of areas that can show a direct and more or less immediate effect on
technology development and successful applications with direct economic impact. While control science is at the heart of these
new multidisciplinary developments, it is often hard to explicitly recognize and show the importance of our field outside our
community. In order to stay successful in the quest for funding support, the control community will need to position itself in a
strategic way, and may need to seek stronger connections with neighbouring societies and disciplines, while at the same time
pursuing to develop essential generic fundamental tools and methods for addressing these next generation of systems and
control problems.
In view of this the following questions are faced:
- How should systems and control research develop itself to continue/enlarge its success and impact in modern society?
- How can we increase our success and impact through (multinational) research funding?
- What are desired developments for our international control society?
Invited Panel Members
Invited panel members are key persons involved in strategic aspects of science and technology development, representatives
of government bodies, funding agencies and industries, with a view on strategic developments in control, geographically
distributed over the world.
- from EU: Prof. Sebastian Engell Sebastian.Engell@bci.tu-dortmund.de
- from Japan: Prof. Shinji Hara shinji_hara@ipc.i.u-tokyo.ac.jp
- from Industry: Dr. Alf Isaksson alf.isaksson@se.abb.com
- from India: Prof. H.S. Jamadagni hsjam@cedt.iisc.ernet.in
- from USA & NSF: Dr. Pramod K. Khargonekar pkhargon@nsf.gov
- from Industry: Dr. Tariq Samad tariq.samad@honeywell.com
- from China: Prof. Yuanzhang Sun yzsun@mail.tsinghua.edu.cn
- from Brazil: Dr. Marco H. Terra terra@sc.usp.br
About the Organizers and Panelists
Prof. Sebastian Engell received the Dipl.-Ing. degree in Electrical Engineering from the Ruhr-Universität
Bochum, Germany, in 1978, and the Dr.-Ing. degree from the Universität Duisburg, Germany in 1981. In
1987 the Universität Duisburg granted him the venia legendi in Automatic Control. From 1981 to 1984
and 1985-86 he was a senior researcher in the Automatic Control Group in the Mechanical Engineering
Department at Universität Duisburg, 1984/85 he spent a year at McGill University, Montréal, working with
George Zames and Peter Caines. 1986 he joined the Fraunhofer-Institut IITB, Karlsruhe, Germany, as a
leader of a R&D group where he acquired and managed projects on industrial control and production
scheduling. For one of these projects, he received a Joseph von Fraunhofer-Prize in 1991. Since 1990
he has been Professor of Process Control in the Department of Biochemical and Chemical Engineering,
Universität Dortmund, Germany. 1996-1999 he served as the Department Chairman, and from 2002-2005
as Vice-Rector for Research, Promotion of Young Scientists and International Relations of Universität
Dortmund. Currently he again is Department Chairman and Commissioner for International Relations
of TU Dortmund. He was member of the selection committee for the Leibniz-Prize of the Deutsche
Forschungsgemeinschaft, the most prestigious German research award, founding Co-Editor of the IEEE
Transactions on Control Systems Technology and Associate Editor of the European Journal of Control and
Associate Editor of Journal of Process Control. Sebastian Engell was appointed Fellow of the International
Federation of Automatic Control in 2006. He currently is Vice-President of EUCA, the European Control
Association, and national delegate in the Working Party for Computer-Aided Process Design (CAPE) of
the European Federation of Chemical Engineering. Sebastian Engell was awarded a European Research
Council Advanced Investigator Grant for the project MOBOCON (Model-based Optimizing Control – From
a Vision to Industrial Reality) and he leads the European Projects DYMASOS (Dynamic Management
of Physically Connected Systems of Systems) and MORE (Real-time Monitoring and Optimization of
Resource Efficiency in Integrated Processing Plants) and the Support Action CPSoS –Cyber-physical
Systems of Systems which will provide a roadmap for future research and funding in the area of large
cyber-physical systems with distributed management and control. His areas of research are robust control
methods, optimal operation of chemical and biochemical processes, coordination methods for large
systems, scheduling, tool integration, and optimization-based process design.
Statement:
“Dynamic modeling, optimization and high-performance control are major contributors to better systems
performance, economic competitiveness and resource efficiency in many areas and industries, and in my
view the recognition for and the impact of the field have increased a lot during the last decade. Despite
tough competition between different scientific communities, the funding opportunities in many countries
in Europe are good, and the field has been addressed quite well in the first calls of Horizon 2020 on
the European level. To maintain and to improve our position, we should i) address relevant real-world
problems in a serious manner, which requires to understand the application domains in depth and to take
into account that time-scales for real implementations are often long and that success depends also on
many non-technical factors, ii) derive fundamental research questions from the challenges that are met
in applications and posed by new technologies, iii) join forces with adjacent fields such as optimization,
computer science, communications, and cognitive science to integrate their results and technologies and
to tackle new challenges together and to create innovative inter-disciplinary research initiatives, iv) improve
our communication with the decision makers and the public to point out the contributions of systems and
control theory and technology to advancements in societally relevant fields.”
Prof. Shinji Hara received the B.S., M.S., and Ph.D. degrees in engineering from Tokyo Institute of
Technology, Tokyo, Japan, in 1974, 1976 and 1981, respectively. In 1984 he joined Tokyo Institute of
Technology as an Associate Professor and had served as a Full Professor for ten years. Since 2002 he has
been a Full Professor of Department of Information Physics and Computing, The University of Tokyo. He
received George S. Axelby Outstanding Paper Award from IE Control System Society in 2006. He also
received Best Paper Awards from SICE several times. His current research interests are in robust control,
decentralized control for networked dynamical systems, glocal control, energy management systems,
systems biology, and computational aspects of control system design. Dr. Hara was the General Chair
of the CCA04, the Program Co-Chair of the 17th IFAC World Congress in Seoul, the President of SICE in
2009, the Vice President of IE CS for membership activities in 2009-2010, IFAC Council member since
2011, and associate editors of several international journals including IE Trans. on Automatic Control
and Automatica. He is Fellow of IE, IFAC, and SICE.
Statement:
“There are serious issues in the natural environment, energy resources, social conflicts, etc., which should
be solved by future science and technology. We have learned from the earthquake and tsunami on March
11th, 2011 in Japan and Fukushima nuclear power plant troubles that the current science and technology
need careful reconsideration and appropriate paradigm shifts, where “control” should play a key role for the
success. Under this understanding, Japan NMO in IFAC proposes “Design and Realization of Sustainable
Society Harmonized with Nature Led by Control” as a future direction of control. I will present this direction
from my perspective through some current activities based on my new idea of “global control” and show
what we should be focused on in control community to realize it.”
Dr. Alf Isaksson
graduated from Linköping University, Linköping, Sweden, with an MSc in Computer
Engineering and PhD in Automatic Control in 1983 and 1988, respectively. He stayed at Linköping University
as Lecturer until 1991, when he spent one year at The University of Newcastle, Australia. Coming back
to Sweden in 1992 he moved to the Royal Institute of Technology (KTH) in Stockholm, where he was
eventually in 1999 promoted to full professor. In 2001 he left academia and started with ABB Corporate
Research, where he worked as a technical specialist reaching the level of Corporate Research Fellow in
2009. Meanwhile he also returned part-time to academia as Adjunct Professor at Linköping University in
2006, where he was leading a Process Industry Center (PIC-LI) between 2009 and 2012. From 2012 he is
now Program Manager of Control & Optimization, i.e. globally responsible in ABB Corporate Research for
all research in this area. In 2013 he was elected as member of the Royal Swedish Academy of Engineering
Sciences. Isaksson’s own research interests were initially focused on system identification, but he later
moved more generally into Process Control. More recently, leading PIC-LI and also as Program Manager,
the interest has widened even further to cover all aspects of automation in process and manufacturing
industry.
Statement:
“As an enabling technology automatic control has been aabsolutely necessary in almost all technical
development in the last 50 years. What would, for example, modern aircraft, cars or ships be without
control? Yet many challenges still lie ahead of us. The use of unmanned vehicles is still only in its infancy. In
my own field of research, within Process and Manufacturing industry, there is now talk about a 4th industrial
revolution (cf. German government funded initiative Industry 4.0) with buzzwords as cyber-physical systems
and internet of things. Here in Sweden the government funding agency VINNOVA just granted funding the
first five strategic research areas which all focus on these base industries, with one specifically on Process
Industrial IT and Automation.”
Prof. H. S. Jamadagni
has a doctoral degree from Indian Institute of Science and he is a professor at
CEDT in IISC. He was chairman of CEDT during 1996 – 2009. He is one of the founder members of CEDT
in co-operation with Swiss Government, and is the main architect of the successful collaboration project in
education and research between Europe and India. He is regular visitor to International universities in U.S
and Europe. He has published many papers and research publications. He is the force and the key driver
for the Intel Multi-Core University Program in India. He is also the coordinator of the Texas Instrument’s
“Lead University” programme at IISc. He is one of the key mentors for the Intel Higher Education
programme in India and was the program coordinator for various Intel Workshops and research programs.
He is a teacher, product developer, researcher, industrial consultant and one of the main coordinators of
the national education publications in India, and a mentor to many research students. He co-founded a
communications startup company in 2003. He also served as Member (Part time) in Telecom Regulatory
Authority of India (TRAI) during 2010 – 13.
Statement:
"The coming years are going to define some very important and hopefully, game changing, directions in the
Indian scene. The two big new directions being thought about are electronics manufacturing and Internet
of Things. There are many research proposals already in the area and they are getting evaluated and funded
in due course. IOT is going to be applied in practically all areas like healthcare, banking, transportation,
infrastructure, etc. All these new areas will need extensive work in system design, control systems, and
machine learning. It is of such high importance that some of the Central (federal) government ministries are
preparing their own of action and make available research grants in these areas. This apart, ministries are
also investing heavily in trying to bring the Industry into the fold by cofounding, supporting SME’s etc. In
short, the next seven to ten years will be a highly opportune epoch for working in the systems and control
area with focused funding and high expectations."
Dr. Pramod P. Khargonekar
was appointed by the National Science Foundation (NSF) to serve as
Assistant Director for the Directorate of Engineering (ENG) in March 2013. In this position, Khargonekar
leads the ENG Directorate with an annual budget of more than $800 million. The ENG Directorate invests
in frontier engineering research and education, cultivates an innovation ecosystem, and develops the nextgeneration
of engineers. He is a member of the senior leadership team at NSF and thereby involved in setting
priorities and policies at NSF. He received B. Tech. Degree in electrical engineering from the Indian Institute
of Technology, Bombay, India, in 1977, and M.S. degree in mathematics and Ph.D. degree in electrical
engineering from the University of Florida in 1980 and 1981, respectively. He has held faculty positions
at the University of Florida, University of Minnesota, and The University of Michigan. He was Chairman
of the Department of Electrical Engineering and Computer Science from 1997 to 2001 and also held the
position of Claude E. Shannon Professor of Engineering Science at The University of Michigan. From
2001 to 2009, he was Dean of the College of Engineering and is currently Eckis Professor of Electrical and
Computer Engineering at the University of Florida. He also served briefly as Deputy Director of Technology
at ARPA-E, U. S. Department of Energy in 2012-13. Khargonekar’s research and teaching interests are
centered on theory and applications of systems and control. His early work was on mathematical control
theory, specifically focusing on robust control analysis and design. During the 1990’s, he was involved in
a major multidisciplinary project on applications of control and estimation techniques to semiconductor
manufacturing. His current research and teaching interests include systems and control theory, machine
learning, and applications to smart electric grid and neural engineering. He has authored more than 130
refereed journal publications and 150 conference publications. He has supervised 32 doctoral students.
He has been recognized as a Web of Science Highly Cited Researcher. He is a recipient of the NSF
Presidential Young Investigator Award, the American Automatic Control Council’s Donald Eckman Award,
the Japan Society for Promotion of Science fellowships, the IE W. R. G. Baker Prize Award, the IE
CS George Axelby Best Paper Award, the Hugo Schuck AC Best Paper Award, and the Distinguished
Alumnus and Distinguished Service Awards from the Indian Institute of Technology, Bombay. He is a Fellow
of IEEE. At the University of Michigan, he received the Arthur F. Thurnau Professorship. In the past, he has
served as Associate Editor for IE Transactions on Automatic Control, SIAM Journal of Control, Systems
and Control Letters, and International J. of Robust and Nonlinear Control. He has been a member of the
IE Control Systems Theory and Robust Control technical committees. He has also served as Chair and
Member of the American Automatic Control Council’s Donald Eckman Award Committee. He has served
as Program Co-Chair of the American Control Conference.
Statement:
“Systems and control field holds enormous potential to contribute to solving a large number of critically
important societal problems and grand challenges. As a result, it has the potential to become an integral
part of high priority research areas. Whereas there are many promising and important ongoing research
endeavors, the true potential for the systems and control field can be realized much more fully by taking
strategic approaches to these opportunities. Some of these include building strong partnerships with
complementary fields and disciplines, developing compelling visions for solutions to pressing societal
problems, creating new paradigms for research achievements that can stimulate and inspire the research
community. By fully engaging in such efforts, new research directions that will enrich the core field are
also likely to emerge. I will present these thoughts from my perspective at the U. S. National Science
Foundation."
Dr. Tariq Samad
is a Corporate Fellow at Honeywell’s Automation and Control Solutions business group,
which services the automation needs of over 5 million buildings, 100 million homes, and 30,000 processrelated
industries including power plants and manufacturing facilities. Over the last several years, much of
Dr. Samad’s work has embraced clean energy, including smart grids, renewables, clean coal technology,
intelligent buildings, and low-emission automotive engines. Dr. Samad is internationally recognized as a
technical expert and thought leader in control systems and intelligent automation. He was the 2009 President
of the IE Control Systems Society and is the President Elect of the American Automatic Control Council.
Dr. Samad is an IE Fellow and the recipient of an IE Third Millennium Medal and the 2008 IE-CS
Control Systems Technology Award, among other distinctions. Dr. Samad’s professional leadership roles
have also included serving as General Chair for the 2012 American Control Conference (Montréal) and as
co-chair of the 2012 DOE/Industry Sensors Workshop (Chicago) and the 2013 International Workshop on
Smart City: Control and Automation Perspectives (Hangzhou, China). He has given keynote lectures at
conferences in North and South America, Europe, and Asia. Dr. Samad holds 18 patents and has over 100
publications. He was the Editor-in-Chief of IE Control Systems Magazine (1998 – 2003) and is currently
Editor-in-Chief of the Encyclopedia of Systems and Control, to be published by Springer in 2014. He was a
co-editor of the recent IE publication, IE Vision for Smart Grid Controls: 2030 and Beyond. He serves
on the editorial board of IE Press and is a Series Editor for Springer. Dr. Samad received a B.S. from Yale
University and MSEE and Ph.D. degrees from Carnegie Mellon University. He has been an adjunct faculty
member at the University of Minnesota and Georgia Tech. Dr. Samad was elected to the Governing Board
of SGIP when the organization was established in 2009 and reelected in 2010. He served as Vice-Chair
for the Business and Operating Practices and Communication, Marketing, and Education working groups.
He served on the Board of Directors of the new industry-driven SGIP organization at its inception and was
elected in June 2013 for a term through December 2014. Dr. Samad serves on the Technical and Executive
Committees of the Board of Directors and is the Executive Committee liaison for international outreach.
Statement:
“The systems and control community is more disconnected than most research groups from relevant
practitioners and decision makers. As a consequence, our support--financial and otherwise--from industry
and government isn’t commensurate with the potential and promise for societal benefit of our intellectual
contributions. We are not as aware as we should be of the continuing impact of our research on industry
and society; of the state-of-the-practice in the application domains, both traditional and emerging, we
hope to serve; and of the requirements and processes involved in engaging industry in exploiting our
theoretical results. I look forward to elaborating on these points, discussing how they can be addressed,
and panelist and participant reactions.”
Prof. Yuanzhang Sun
was born in Hunan province of China in 1954. He received the B.S. degree from Wuhan
University of Hydro and Electrical Engineering, Wuhan, China, in 1978, the M.S. degree from the Electric
Power Research Institute (EPRI), Beijing, China, in 1982, and the Ph.D. degree in electrical engineering
from Tsinghua University, Beijing, in 1988. Currently, he is a Professor and the Dean of the Smart Grid
Research Institute of Wuhan University, and a Chair Professor of the Department of Electrical Engineering
and Vice Director of the State Key Lab of Power System Control and Simulation at Tsinghua University.
His main research interests are in the areas of power system dynamics and control, wind power, voltage
stability and control, and reliability. Dr. Sun has authored or co-authored over 100 research publications
and also three books published by Kluwer Academic Publishers and Science Academic Publishers of
China. Dr. Sun is a senior member of IE and CSE (Chinese Society of Electrical Engineering). He is
currently serving as an associate editor of IFAC Journal on Control Engineering Practice, an associate
director of Department of Electricity & Applied Mathematics.
Statement:
“For the last decade, Chinese government and industries have sponsored tremendous researches
associated with applications of advanced control techniques for the safe and efficient operation of power
systems. Such trend is actually continued now and undoubtedly will not be altered in the future as the
huge needs of the novel control theories and techniques suitable for solving the problems in massively
exploiting the renewable energy (e.g. wind power). For example, a mega project has been funded by the
Chinese Science and Technology Ministry to study the frequency control approaches of an isolated power
system with large-scale intermittent and fluctuating wind power generation. In my opinion, construction of
smart grid with highly penetrated renewable energy provides a lot of opportunities to develop the control
field, and researches on control techniques which are applicable for super giant and complex systems will
receive more funding in the future.”
Prof. Marco H. Terra
is with the Electrical Engineering Department of the University of São Paulo (USP),
São Carlos. He received his BS from São Paulo State University (USP) in 1986, and MSEE in 1990 and
Ph.D. in 1995 both from USP. He visited for some months the University of California at Los Angeles where
he started his research on robust filtering. He has been ad hoc referee of several scientific foundations,
such as the Research Grants Council of Hong Kong, and reviewer of dozens journal papers, such as
the American Mathematical Society. He has coordinated some projects related with Driver Assistance
Systems, sponsored by Scania Latin American; Multisensor-fusion and Regulation of Robotic Rehabilitation
Systems, sponsored by CNPq; Inspection of Power Transmission Lines Through Unnamed Helicopters,
sponsored by Brazilian Electricity Regulator (ANEL) and AMPLA - an electric energy distributor which
provides electricity to 66 cities in the state of Rio de Janeiro. Currently, he is president of the Brazilian
Society of Automatics – SBA. Prof. Terra is coordinating the creation of a Robotics Center at USP-São
Carlos. This is a joint initiative of ten researchers from electrical and mechanical engineering, and from
computer science. This Center has the mission of providing alternatives to solve universal problems
through robotics, such as rehabilitation of upper and lower limbs in people with disabilities, and problems
with a strong national appeal, such as those related to precision agriculture and the pre-salt areas in which
we are strong economically. Prof. Terra is a co-author of the book “Robust Control of Robots: Fault Tolerant
Approaches” by Springer Verlag in 2011. He has dedicated effort on the development of recursive robust
Controllers for uncertain linear systems subject to Markovian jumps.
Statement:
“In Brazil we have several challenges related with research financial support. We have two important
federal entities responsible to define politics for science and technology, National Council for Scientific
and Technological Development - CNPq and Coordination for the Improvement of Higher Level Personnel
- Capes. There is a consensus in Brazil that we need to train more engineers, much more qualified than the
ones we have ever trained. In this way, themes related with systems and control have a great opportunity
to obtain more and more visibility in Brazil. Besides to understand and interact with research programs
created in United States and in Europe, we are interested in share experiences with the BRICS (Brazil,
Russia, India, China and South Africa).”
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