KlipschSpeaker
Spring 1998 Alumni News
Vol. 2, No. 2 news-q982
Klipsch School of Electrical and Computer Engineering
New Mexico State University
his is the second issue of our second year
of the KlipschSpeaker. This issue
describes the legacy of Prof Brown and
Klipsch School development, discusses
new trends in control systems education and
research, and provides a discussion of "outcomes
assessment" in the graduate program.
THE LEGACY OF PROF BROWN
Harold A. "Prof" Brown died on January 2, 1998 at
the age of 90. More experienced alumni remember
him as a professor in the Electrical Engineering
Department. Newer alumni remember him as the
"Brown" in Thomas and Brown Hall. Prof Brown
received a Bachelor of Science in Electrical
Engineering in 1931 and a Master of Science in
Electrical Engineering in 1932 from Oklahoma A&M
College. He joined the staff at New Mexico A&M
College (NMSU) in 1937 and served as department
head from 1955 to 1968. One of his major
contributions to NMSU was the design of the
electrical and computer engineering building,
completed in 1971 and named for Dean Thomas and
Prof Brown, who both retired at the same time.
Prof Brown's legacy is not only through his electrical
engineering teaching and administration, but also
through financial support for students. In 1964, Prof
owned several acres of land along Espina Street
which the University wanted for married student
housing. He traded the land to NMSU in return for
one resident tuition scholarship to be given each
semester to a deserving junior or senior engineering
student. The Robert Livingston Brown Scholarship, in
honor of Prof Brown's father, started in the fall
semester of 1964 and will end with the fall 1998
semester thirty-four years of student support.
Prof Brown's will bequests his entire estate for the
endowment of the PROFESSOR HAROLD BROWN
SCHOLARSHIP IN ELECTRICAL ENGINEERING.
Preference is to be given to financially needy
undergraduates who are U.S. citizens with a GPA of
2.8 or above. Settlement of his estate is expected to
provide an endowment in the range of $750,000,
resulting in about $40,000 per year for scholarship
support of Klipsch School students. Harold Brown's
legacy will exist in perpetuity.
KLIPSCH SCHOOL DEVELOPMENT
You alumni are wonderful. You've listened to
our pleas for gift and endowment support to
enable the Klipsch School to continue to strive
for excellence and have responded generously.
Alumni giving is up and we have started the
endowments for the KLIPSCH SCHOOL
ALUMNI SCHOLARSHIP ENDOWMENT and the
KLIPSCH SCHOOL COMMUNICATIONS AND
SIGNAL PROCESSING CHAIR. On behalf of
the Klipsch School students and faculty, we
sincerely thank you for your support. The
administrative system always seems to have
large delays from the time you send your gift to
the Foundation until we receive notification.
Please do not feel slighted or unappreciated. Dr.
Jordan will personally thank you for your support.
KLIPSCH SCHOOL ENROLLMENT
As mentioned in the Winter 1988 Alumni News,
the Klipsch School enrollment is about 417
under-graduates and we are now experiencing
increased enrollment in our junior level classes.
We are now seeing a surge in freshman and
transfer enrollment. Compared with one year
ago the College of Engineering freshman
applications are up 35%, freshman admissions
are up 33.6%, transfer applications are up 25%,
and transfer admissions are up 14%. The
Klipsch School's numbers always run higher
than the college's in all of these categories.
In 1986, the nationwide electrical engineering
enrollment was about 122,000. In 1996, it was
about 58,000. Even though enrollment is
starting to climb, the demand will far outpace the
supply for many years. Electrical and computer
engineering students presently enrolled and
students considering college careers in electrical
and computer engineering will receive numerous
outstanding job offers upon graduation for many
years to come.
OUTCOMES ASSESSMENT FOR
THE GRADUATE PROGRAM
As we mentioned in the last issue of the
KlipschSpeaker, the North Central Accreditation
Commission on Institutions of Higher Education
(NCA) will be on the NMSU campus during April
6 - 8, for its decennial evaluation of
undergraduate and graduate programs and
"outcomes assessment" is a major part of the
evaluation. We discussed the undergraduate
program in the last issue. Here, we discuss the
graduate program. As with the undergraduate
program, our MS and PhD graduates should
possess the following attributes:
1) The ability for critical thinking.
2) A thorough grounding in fundamental analytical
problem solving.
3) A love of lifelong learning.
4) Superior communication ability.
5) Self-confidence to solve unknown problems.
During the past year, Jay Jordan has developed
the outcomes assessment for the Klipsch School
graduate program. The following is an excerpt
from the graduate portion of the Klipsch School
Outcomes Assessment of Student Academic
Achievement.
Klipsch School Goal. The goal of the Klipsch
School is the national recognition of a quality
graduate program that provides an excellent
education at the masters and doctoral levels that
enables students to be productive leaders in
technology and society. Through a balanced
program of basic and applied research, the
Klipsch School advanced degree graduate is
provided with in-depth technical expertise
coupled with training in teaming and leading
engineering research and development.
Master's Degree
Outcomes. The Master of Science in Electrical
Engineering is a research degree that prepares
a student for doctoral studies and a leadership
role in industry. Students are strongly
encouraged to undertake a master's thesis or
master's technical report as part of their MSEE
program. A master's thesis or technical report
provides a research environment that allows the
student to demonstrate the ability to read,
understand, and creatively apply experimental
and/or analytical concepts. The master's thesis
is usually a complete document; whereas, a
master's technical report may be more narrow in
scope and present one part of a larger research
project.
Student Learning Assessment Standard and
Its Measurement(s). 1) The candidate is
required to undergo an oral examination at the
end of the master's program and is examined by
several Klipsch School faculty, one or more out-
of-department professors, and an out-of-
department professor representing the dean of
the graduate school. The successful completion
rate will meet or exceed national averages. 2)
The student is encouraged to seek publication of
his work described in his master's thesis or
technical report. Fifty percent of Klipsch School
thesis or technical report students will publish
their results in either conference proceedings or
peer reviewed journals.
Program Assessment Standard and Its
Measurement(s). 1) North Central Accreditation
Commission on Institutions of Higher Education
(NCA) review and accreditation of program. 2)
Annual review by the Electrical and Computer
Engineering Academy Industrial Advisory Group
(ECEA/IAG).
Doctoral Degree
Outcomes. The PhD in Electrical Engineering is
a research degree that prepares a student for a
leadership role in academia and industrial
research and development. A doctoral
dissertation is required. The dissertation topic
provides a research vehicle for either
experimental and/or analytical investigation that
has sufficient depth to allow the investigator to
demonstrate independent and original work. A
distinguishing feature of the doctoral research is
the recognition of the state-of-the-art as well as
research style in the research field. The doctoral
research must establish a perspective on how the
results fit into the existing body of knowledge.
The doctoral dissertation also provides evidence
of independent research leading to some original
results, conclusions, or applications. The
dissertation must show through references to
published articles that the results and conclusions
are original. Original results or conclusions
represent the extension of knowledge or new
methods for applying known theories.
Even though students may and generally do
receive considerable help in selecting the
direction of dissertation research, each student
must demonstrate the ability to perform and
communicate independent research, leading to
new results or a significant extension of the body
of knowledge. On completion of the dissertation,
the student is expected to be capable of
formulating, conducting, and directing research
and development programs in industry, federal
laboratories, and academia.
Student Learning Assessment Standard and
Its Measurement(s). 1) Before being admitted to
the PhD program, the candidate must pass a
standardized qualifier exam administered by the
Klipsch School. This exam establishes the
candidate's broad skill level and knowledge in
electrical and computer engineering. Of the
students attempting the examination, 80% will be
successful. 2) Near the end of the student's
course work, the candidate is required to
undergo a comprehensive written and oral exam
which measures the candidate's mastery of
specific knowledge and facility in the chosen
research area. Ninety-five percent of the
students taking the comprehensive exam will be
successful. For the oral portion of the
examination, the candidate is examined by
Klipsch School faculty, one or more out-of-
department faculty, and an out-of-department
professor representing the dean of the graduate
school. 3) Finally, the candidate is required to
undergo a final oral examination which is a
defense of the dissertation research. At the final
examination, the candidate is examined by
Klipsch School faculty, one or more out-of-
department faculty, and out-of-department
professor representing the dean of the graduate
school, and, if appropriate, one or more PhD
experts in the field of research from industry or
federal laboratories. 4) The dissertation
research is expected to result in one or more
published papers in peer reviewed journals.
Seventy-five percent of the students will be
successful in publishing papers in peer reviewed
journals.
Program Assessment Standard and Its
Measurement(s). 1) NCA review and
accreditation of program. 2) Annual review by
the ECEA/IAG.
NEW TRENDS IN CONTROL SYSTEMS
EDUCATION AND RESEARCH
What do you remember about your control
systems courses in the Klipsch School? Laplace
transforms, z-transforms, state-space, transfer
functions? Root-locus, Bode plots, gain and
phase margin, right-half plane, left-half plane,
damping, stability, observability, controllability?
Wiener filters, Kalman filters, nonlinear control,
optimal control? How much design experience
did you have? Did you have, and use software
tools? Have you any experience with expert
systems, knowledge-based systems, and fuzzy
systems? Things are changing rapidly in control
system education and research. Klipsch School
Assistant Professor Robert Paz and Associate
Professor Ram Prasad are at the forefront.
Present and future ABET accreditation standards
require significant design experiences. Moreover,
these requirements emphasize the need for
significant use of computers and embedded
microcontrollers in controlling complex systems.
This is a formidable task for many educators in
the area of control systems. While the field itself
provides a rich array of potential design projects,
a manageable approach for such projects has not
previously been available in the literature. The
textbook, Computer Controlled Systems, by
Robert Paz, was written with these objectives in
mind. The writing of this textbook has been a
significant project for Bob, requiring four years of
solid effort to complete. Many of the reviews
have been positive, as the niche for this type of
textbook is becoming more pronounced. This
text was accepted by John Wiley & Sons Inc.,
and is currently in the pre-printing stage. A
significant design aspect is reflected in the text.
The design techniques naturally lend themselves
to the computer and embedded microcontoller
control of complex systems. This textbook
contains many design techniques ranging from
state-of-the-art techniques to classical methods.
In addition, it includes practical design examples
and "unsolved" design problems on which
students may test their knowledge. Many design
algorithms are presented for computational
solutions to design problems. These algorithms
are made available to the students in the
CTOOLS computer aided design software.
The CTOOLS graphical user interface (GUI) has
also been introduced into the control design
curriculum. This is an entire toolkit of functions,
GUI, design tools, and simulation tools used
within the MATLAB operating environment. This
toolkit allows the student in control systems to
design and test a great variety of control designs
in a simple, straight-forward way. The software
allows a controller to be designed using a
technique selected by the student. The package
then performs a simulation on the hybrid system.
Parameters for the controllers may be "tweaked"
by pushing a button or repositioning a slider, and
the new design simulated for evaluation. Factors
affecting the performance of the system may
also be varied such as noises, tracking signals,
sampling period, initial conditions, etc. The user
is thus provided general-purpose, "high-tech"
tools for designing and testing controller designs.
Such tools have not previously been available.
Their usefulness, however, is illustrated in the
fact that they are beginning to appear in the
marketplace.
CTOOLS is useful for the student who is learning
control design as well as the experienced
designer who wishes to quickly design and test
a control for a particular system. This introduces
a new paradigm in the control design process
and is actually an accompaniment to Professor
Paz' text Computer Controlled Systems. The
usefulness of the software is not just of
pedagogical value, but has also been found to
be of industrial value.
Did you know the future control system research
and education is "soft?" In February, Nadipuram
(Ram) R. Prasad of the Klipsch Scool and
Professor Hung T. Nguyen of the Department of
Mathematical Sciences submitted a pre-proposal
to the National Science Foundation for the
establishment of The Rio Grande Center for Soft
Computing (RIGSOFT). The mission of
RIGSOFT is to conduct research, develop a
strong educational curriculum, and promote
knowledge transfer among faculty, students,
government, and industry in the new technology
for reasoning under uncertainty, namely, "Soft
Computing." The principal constituents of soft
computing are fuzzy logic, artificial neural
networks , genetic algorithms, and evolutionary
computing. Collectively, the constituents of soft
computing are viewed as complementary rather
than competitive. These techniques aim at
providing some form of "machine intelligence"
that can mimic human expertise in decision
making. The primary motivation for using soft
computing is to exploit the tolerance for
imprecision, uncertainty, and partial truth, and as
a consequence achieve a high degree of
tractability and robustness, and provide low cost
solutions for complex problems. Soft computing
has applications in such important fields as data
fusion, image processing, control systems,
energy systems, and many other areas of
engineering, biological, and physical sciences.
RIGSOFT will foster a rich environment for both
fundamental and applied research in soft
computing. The research team will consist of
faculty, students, and researchers from NMSU,
The University of Texas at El Paso (UTEP), and
the New Mexico Institute of Mining and
Technology (NMIMT). In addition, researchers
from government, namely, Los Alamos National
Laboratory, Sandia National Laboratory, US Army
White Sands Missile Range, and several industry
partners will collaborate in new and on-going
research projects.
A strong academic curriculum will be developed
to streamline education in soft computing
technology. RIGSOFT will provide a hands-on
environment for students to develop strong
laboratory skills. The educational program will
span undergraduate through PhD level students
and postdoctoral fellows. An active program of
seminars and workshops will be developed. This
will be achieved through visiting scholars from
other institutions as well as faculty from
RIGSOFT. Results of these activities will be
integrated into existing programs for distance
learning and will be used to enhance the
educational training of pre-college students.
Knowledge transfer will be achieved by
interaction with researchers from various
affiliated educational and industrial institutions,
and national laboratories. Dissemination of
knowledge through publications in peer-
reviewed journals and participation in domestic
and international symposiums will be a
requirement for RIGSOFT faculty as well as part
of the students' academic activities to ensure the
highest quality of education and research.
RIGSOFT will host international symposiums to
attract researchers from all over the world as
part of the knowledge transfer objectives.
FACULTY/ STAFF HIGHLIGHTS
In February, Pat Hynes, Associate Director of the
Klipsch School's New Mexico Space Grant
Consortium completed her requirements for the
PhD in Interdisciplinary Studies. Her research
integrated management techniques in the field of
organizational behavior to analyze stress
associated with role ambiguity and role conflict
experienced by engineering professors at
NMSU, UNM, and New Mexico Tech. Among
other things, her research showed that
engineering professors have created their own
skills for coping with role ambiguity and role
conflict stress. Also, mentoring is important
when a professor is first on the job and when the
job description changes.
Bill Smith recently joined the Klipsch School as
our Computer and Networking Engineer. Bill
brings extensive network management
experience to the job. He is also currently
completing an undergraduate degree in
management.
KLIPSCH SCHOOL NOTES
We now have the KlipschSpeaker on our web
site. Locate http://www.ece.nmsu.edu/alumni/
alumni. html, select KlipschSpeaker and bring up
the issue you want.
Part of the process of starting the quarterly
KlipschSpeaker is the development of an
accurate, up-to-date alumni database. We get
our mailing labels from the NMSU Alumni
Association, but we know there are Klipsch
School alumni who are not members of the
NMSU Alumni Association. We want to put these
alumni in a Klipsch School database, but we don't
know how to find them. Please send us
addresses of alumni not receiving the
KlipschSpeaker.
We can also provide the KlipschSpeaker as an
attachment to an E-mail message for those
alumni who prefer electronic service. This may
be especially attractive to foreign alumni. If you
want E-mail delivery, send your name and email
address to jtaylor@nmsu.edu. Indicate any
special requirements. Since this may take
several attempts to get it right, we'll keep mailing
the KlipschSpeaker in the conventional way until
you tell us that the E-mail method is successful.
If you haven't already, please check the Klipsch
School's web page at http://www.ece.nmsu.edu.
Our web page tells about the Klipsch School
students, faculty, programs, and research. Look
us up. The NMSU web page address is
http://www.nmsu.edu. You can get to our web
page from NMSU's or directly at the address
above. The University has a calendar of events
web page at http://www.nmsu.
edu/general/calendar. If you want to get in touch
with us, obtain additional information, or tell us
something about you or other alumni, contact the
Klipsch School Head, Dr. Jay Jordan at 505-646-
3115 or E-mail to jjordan@nmsu. edu, or Dr.
Javin Taylor, Associate Head and
KlipschSpeaker editor at 505-646-1239 or E-mail
to jtaylor@ nmsu.edu. Or use the Klipsch School
fax number, 505-646-1435.
KlipschSpeaker
Spring 1998 Alumni News
Vol. 2, No. 2 news-q982
Klipsch School of Electrical and Computer Engineering
New Mexico State University
Las Cruces, NM 88003