Cover Story
Fall 2009, VOL. 9 NO.2 |


Section 1:
Undergraduate
Education
Among the plan’s many strategies for improving undergraduate
education at the Clark School, several concern the essential tasks
of introducing students to the real-world engineering challenges
they will soon face, so that they leave the Clark School ready to
lead. As an alum, what would you suggest in this regard?
Goal I.5: The Clark School will do more to ensure
that our students are better prepared to face the
challenges immediately presented to them upon
obtaining their degrees and entering the professional
world.
Greg Moores, B.S. ’80, mechanical engineering (ME) and vice president
of engineering for DeWalt, Inc., a division of Black & Decker
and one of the world’s leading manufacturers of industrial power
tools, says 25 percent of Black & Decker engineers are recruited
from the Clark School. He attests to their skills and job readiness.“The Clark School focuses on the practical application of engineering
and teaches students how to apply engineering principles. When
students graduate, they are ready for the workplace,” says Moores, a
member of the Clark School Board of Visitors.
Black & Decker plays a key role in making this happen, and
in doing so provides a model for many industries. The company
is actively involved in ENME 371 Product Engineering and
Manufacturing. There, |
students propose enhancements to actual
Black & Decker products, and company experts provide direct
feedback andexplain the company’s product development process. “When it comes time to recruit students from the Clark School,”
Moores explains, “they have test-driven us, and we know them.” Could an analogous approach be applied in other industries with
other companies?
Strategy I.5.A: Establish a Clark School Writing/Presentation Center to improve students’ professional
communications skills.
When you were a student, did you understand the importance of communications
for your future career? Would you recommend an engineering- oriented
Writing/Presentation Center for today’s students?
“The value of an engineering degree lies in one’s ability
to critically analyze any issue or situation,” says University
Medalist Phil Hannam, B.S. ’09, ME (see related story, p. 19). “Writing is a vital tool for communicating that knowledge and
understanding. I strongly support a program to increase writing
abilities, particularly with a focus on translating technical
issues to language easily understood by both experts in other
fields and laypeople.”
Greg Moores concurs. “Writing and presentation skills are
keys to success for engineers,” he says. “The days of the engineer
secluded in the lab are over; engineers constantly interface with
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people, and they must have people skills.”
Strategy I.6.A: Foster a sense of pride and unity
among Clark School freshmen by creating and presenting
a bonding experience for them prior to the
start of the fall semester.
Many people would agree that long before students enter the
job market, they need to develop pride in engineering and
their school, strengthen their self-confidence, learn teamwork,
and form friendships that will last well into their careers.
Would a “bonding experience” start that process?
James V. Green, director of the Hinman CEOs and associate
director of entrepreneurial education for the Maryland
Technology Enterprise Institute (Mtech), believes a shared
experience can capture the elements of entrepreneurship, innovation
and leadership for incoming students. “Engineering is a
team sport both in the classroom and in the work world,” says
Green. “Becoming adept at working in a team and learning
how to lead and follow are qualities that may not be discussed
in a traditional engineering curriculum. A dynamic, collaborative
learning opportunity would make students feel embraced
by the school and excited about their academic careers.”
Alumnus Phil Hannam suggests the Clark School design the
event in part to convey the value of interaction with students
and faculty in the university’s other schools as well, concluding,
“Any experience that creates bonds between students is a
good thing.”
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Strategy I.4.C: Develop a junior/senior year… design
course in which faculty members from several
departments assist students in projects (that) focus
on high-level challenges requiring integration of
several disciplines…
Did you do projects with students and teachers outside your department
when you were in school? Strategy I.4.C places older, more
knowledgeable students from different majors in a design experience
analogous to—but more challenging than—the ENES
100 class, which creates teams of freshmen to build and race an
autonomous hovercraft. “Students from multiple disciplines will
take on a high-level problem in teams, as in a professional setting,”
says Avi Bar-Cohen, ME professor and chair. “Employers
want students with experience in teamwork and communication,
ready to lead early in their careers,” adds Joe Schork, chair of the
Department of Chemical and Biomolecular Engineering. “This
plan will provide that experience.”
Linda Schmidt, an ME associate professor who has been honored
for her design work, envisions projects ranging from harnessing
water power to generate electricity, to tracking the sun
for solar arrays. She says, “It’s fun to work with students as they
design and build prototypes and test them against requirements.
Throughout the process, students have ‘eureka moments’ when
their engineering skills manifest to push the project forward.”
Students enjoy project-based work because “it really excites
them,” says David Bigio, ME associate professor and
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director of
the department’s undergraduate studies. “They are eager to see if
their ideas can actually be used by companies.”
Bar-Cohen builds on that point. “Many of our students generate
intellectual property, but too often they leave ideas on the table
when they graduate. A course like this could help us capture these
assets for the benefit of the student and the university and ultimately
address one of society’s unmet needs.”
Section 2: Graduate
Education
Were you, as an engineering graduate student, well prepared to enter
the academic world and succeed as a researcher and teacher? Or to
work in the corporate world with engineers outside your area of
specialization? Two strategies in the plan’s Graduate Education
section address these questions.
Strategy II.4.B: Continue to offer the Clark School’s
Future Faculty Program, including training in writing
and presentation skills, grantsmanship and a
mentored teaching experience, for students who
plan academic careers.
“As a leading academic institution, the Clark School has a responsibility
to help produce great engineering teachers for future
generations,” notes Professor and Associate Dean Mark Shayman. “We created the Future Faculty Program to increase the number
of highly qualified teachers the Clark School produces and to
prepare participating students to achieve career-
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long success in the
academic world as teachers and researchers.”
The new program has begun to yield promising results. Fellow
Enlu Zhou recently accepted a position as an assistant professor at
the University of Illinois. Fellow Omar Abdel-Aziz cites the value
of the class interaction and student feedback he experienced in the
program’s teaching practicum. Fellow Anand Veeraragavan has
broadened his understanding of the typical assistant professor’s daily
life: “You serve on various academic committees, teach, conduct
research and write proposals for funding almost simultaneously. It
has to be a perfect juggling act.” Strengthening and expanding the
program, which now accepts 20 new fellows annually, will require
additional resources. |

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Strategy II.I.G: Encourage the development of new
interdisciplinary programs... to reflect the actual needs
of much contemporary research and development.
Many people would agree that solutions for the world’s most
complex problems will not come from any one engineering
discipline, and that graduate education should thus include
interdisciplinary experiences. A good model is the Clark
School’s new sustainable energy engineering degree program, which “was created in less than a year to meet the growing
demand for sustainable energy engineers worldwide. The
response has been tremendous,” says George Syrmos, executive
director of the school’s Office of Advanced Engineering
Education. “The program is truly interdisciplinary, bringing
together mechanical engineering, chemical and biomolecular
engineering, nuclear engineering, reliability engineering and
systems engineering, and provides real breadth and depth in
the subject.”
In developing programs, Syrmos notes, “We have a sense of the
needs of the engineering community, and we approach the private
and public sectors and look at national and international trends
to identify promising areas.” Syrmos signals bioengineering, nanotechnology,
infrastructure security and management of technology
as key areas that could
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provide interdisciplinary opportunities in
the future. What programs would you envision?
Section 3: Research
George Syrmos’s sense of potential new graduate programs (see
above) is in full alignment with the Clark School’s research priorities,
as spelled out in the strategic plan’s research section:
Strategy III.2.A: Develop national and international
research leadership in biotechnology, nanotechnology
and sustainability engineering systems,
critical research areas that encompass work in all
departments…
In each of these areas, the plan recommends building on the successes
of the school’s related centers: the Fischell Department of
Bioengineering and Robert E. Fischell Institute for Biomedical
Devices, the Maryland NanoCenter, and the University of
Maryland Energy Research Center (see related story, p. 5). Do you
agree with these priorities? What else might be considered?
To define specific research activities within these and other
important areas, the plan calls for two parallel approaches. First,
the school should establish an advisory group (Strategy III.1.B),
and, at the same time, the school should encourage research ideas
to arise from its faculty |
members and their labs (Strategy III.2.B), including innovative cross-disciplinary efforts.
Sarah Bergbreiter, ME assistant professor, has been encouraged
by the school’s receptiveness to new research ideas and the
collaboration she sees among faculty members. She recently won
a Young Faculty Award from the Defense Advanced Research
Projects Agency, given to rising stars in university microsystems
research, for her work on microrobots.
“Some of my most interesting research is occurring at the
boundaries of computer science, mechanical engineering, and electrical
and computer engineering. They all need to mesh to achieve
research goals,” she says. “When you collaborate, you are more
likely to find yourself in new research areas, and you are able to
answer questions in interesting ways.”
André Marshall, associate professor of fire protection engineering,
believes the school must take formal steps to establish
interdisciplinary research centers and help faculty form research
connections. He has been instrumental in planning the meeting
of the Eastern States Section of the Combustion Institute,
involving faculty from mechanical, fire protection and aerospace
engineering. “This activity is a way young faculty can interact
and demonstrate strength in their areas of expertise, and is
important in enhancing their reputations,” says Marshall. |

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Strategy III.I.C: Allocate and invest Clark School
Incentive Funds to support new, unfunded
research by faculty groups that will lead to new,
large, multidisciplinary research centers…
Ultimately, whether they come from the top down or the bottom
up, most new research ideas will require support in their early
stages. The proposed Clark School Incentive Funds would help
pay for new research in the hope that preliminary success will lead
to further support by major government funding agencies.
David Fischell, M.D., chief executive officer of Angel
Medical System, Clark School benefactor, a trustee of Cornell
University and chair of the advisory board for its Department of
Bioengineering, is a champion of such funds. “Seed grants have
the potential to support transitional projects that take the science
and engineering disciplines into medicine,” says Fischell, who
has founded 10 medical device companies. “There is significant
potential for technological transfer.”
Fischell explains that to gain government funding, research must
be underway and, in some cases, must have preliminary results. “It
is nearly impossible to find money to conduct research in a compelling
new area. With seed funding, if the research is successful, you have established a baseline to get regular government grants,” he
explains. “Seed grants of less than $500,000 can yield more than
$3 million in follow-on government grants and continued projects.
There is almost nothing that will yield a greater return.”
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Section 4: State,
National and
International
Engagement
To prepare students to master opportunities and challenges
anywhere — Maryland, Malaysia or Madagascar—and to find new
partners for mutually beneficial initiatives, the Clark School has
developed a set of proposals for expanding our engagement with the
world at state, national and international levels. Do you think foreign
study is important for engineering students? Do you think the school
should be more involved in state, national and international challenges?
Strategy III.2.C: Encourage strategic partnerships
with other schools, government agencies and corporations
that combine research and education…
Models for such partnerships include the Clark School’s creation
of an M.D./Ph.D. program with the University of Maryland
School of Medicine, in which the two |
organizations have a single
point of contact in joint research proposals and place students
in each other’s labs; and the pilot program, involving the Clark
School, the Naval Air Warfare Center, College of Southern
Maryland and Southern Maryland Higher Education Center, to
explore joint activities leading to aerospace and mechanical engineering
bachelor’s degree programs in proximity to the Patuxent
Naval Air Station. Do you know of other partnership opportunities
the school might pursue?
Entrepreneur and Clark School Board of Visitors member
Brian LeGette, B.S. ’89, electrical engineering, envisions members
of the board working with peers from other schools in the university
and from corporations and government organizations to
develop collaborations to solve society’s most pressing social and
economic problems and “to put the Clark School even more in
the center of the action.” As the school identifies major research
interests, board members “can put out feelers to individuals and
companies they know.” What types of challenges do you think the
Clark School and its partners might take on? |
Strategy IV.2.D: Hire adequate staff to develop for
both students and faculty members new international
internships and expanded exchange programs with
top universities abroad…
Stephen J. Woerner, senior vice president for gas and electric operations
and planning with Baltimore Gas and Electric Company and a Clark School Board of Visitors member, is an advocate for study and work abroad. “International internships offer meaningful work opportunities and accelerate the transfer of learning,” he says. “The sooner students have the experience, the more they can do to make a difference in the world, resulting in a higher level of student engagement and a more complete learning experience.”
“Students see there are many ways to learn and approach work
and decision-making. Working abroad, students gain an understanding
of different cultures, beliefs and lifestyles,” he adds. |

Board of Visitors member Ram Mukunda, B.S. ’79, math
and EE, M.S. ’81, EE, and chief executive officer of India Globalization Capital, Inc., believes the Clark School should pursue
internships with organizations such as NATO, government
agencies and U.S. military bases abroad. In addition, “We should
establish programs with the best schools in the world and look at
world-class multinationals like Nokia, Infosys and Siemens.”
He cites a number of long-term benefits. “The Clark School
is already one of the country’s top engineering schools, and this
could move us even further ahead. If students travel to Sweden to
learn about sustainable urban planning or alternative energy, those
students come back and can implement their ideas in the state
and in the region.”
Michel Cukier, ME/Institute for Systems Research associate
professor, began a collaboration with the National Engineering
School of Bourges (ENSIB), France, located 150 miles outside
Paris, four years ago, capitalizing on ENSIB’s expertise in computer
security and risk assessment. During the last academic year,
30 undergraduate students from ENSIB served internships at the
Clark School. |
Two ENSIB students also joined the Clark School
as Ph.D. students.
Each fall Cukier travels to ENSIB to present Clark School
research and recruit new student interns. Some 15 Clark School
faculty members help in advising the ENSIB students. Next summer,
Cukier will offer a three-week summer undergraduate course
for Clark School students at ENSIB. This partnership could be
a model for other schools in other countries, he notes, adding, “This type of relationship has the potential to build an international
presence for the Clark School.”
How You Can Be Part
of the Plan
Now that you have glimpsed a few of the many strategies developed
for the Clark School Strategic Plan, 2009-2014, and started
thinking about your own recommendations, please consider putting
your ideas into action:
• Request access to the Strategic Plan at www.eng.umd.edu/alumni/strat-plan-request.html |
• Provide your e-mail address and year of graduation, and
we will send you the address for the online plan.
• Review the plan online.
• Comment on specific strategies and/or make general observations
using the response windows.
• We will add your submitted comments to those we have
received from faculty, staff, Board of Visitors members,
and others. We will consider them for inclusion in the
plan or in the corresponding implementation document.
“We encourage all members of the Clark School community
to send us their thoughts on the plan and contribute to our progress,”
concludes Dean Pines. “The next five years will be exciting
ones—be a part of it!”
Note: If you do not have Internet access or would prefer a printed
copy of the plan, please send your name and mailing address to
Missy Corley, Clark School of Engineering, 3230 Kim Engineering
Building, College Park, MD 20742-2831. |

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