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Present: CONSTANCE A. MORELLA, (R-MD) National Leadership Council
Co-Chair; EDDIE BERNICE JOHNSON, (D-TX) National Leadership Council
Co-Chair, Allan Alson, superintendent, Evanston Township High School; Dan
Arvizu, senior vice president, CH2M Hill; Earnestine R. Baker, Meyerhoff
Program UMBC; Alfred Berkeley, vice chair, NASDAQ Stock Market, Inc.; Rita
Colwell, director, National Science Foundation; Cinda-Sue Davis,
director, WISE, University of Michigan; Marye Anne Fox, chancellor, North
Carolina State University; Eugene Garcia, professor, Arizona State University;
Shirley Malcom, head, Education Directorate, American Association for the
Advancement of Science ; Willie
Pearson, Jr., professor, Georgia Institute of Technology; Anne Petersen,
senior program director, W.K. Kellogg Foundation; Paula Rayman, professor,
University of Massachusetts; Claibourne Smith, president, Delaware Foundation
for Science and Math Education; Richard Tapia,
professor, Rice University, Deborah Wince-Smith, president, Council on
Competitiveness; also present, John Yochelson, BEST, testimony into
RECORD: Shirley Ann Jackson, president, Rensselaer Polytechnic
Institute.
MORELLA: Women, African-Americans, Hispanics, Native Americans, persons with disabilities make up two-thirds of our workforce but they hold only one-fourth of the jobs in science , engineering, and technology. We perceive this really as a vulnerability that threatens the living standards of all
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PETERSEN: Thank you. It's a great privilege this morning to be
stepping in for Dr. Shirley Ann Jackson. When Dr. Jackson was chair of the
U.S. Nuclear Regulatory Commission, she instituted policies for that agency
that were based on the assessment of risk to the nation's nuclear power plants
and vulnerability to that risk. The process is termed probabilistic risk
assessment. Looking squarely at the vulnerability to risk determines clearly
what action must be taken to reduce the risk of a particular threat. This is
what BEST is doing. The work that BEST has done this past year has revealed
that the United States faces serious risk of losing its economic preeminence,
security, and its well-being as a nation without peer. That risk is embedded
in the fact that while there is a growing need for scientists, engineers and
other technologically skilled workers, the United States is simply not
producing enough of them. That leaves the United States reliant upon
scientists and engineers from other nations, a situation that bears its own
inherent risk and curtailments as we know. Most of the numbers are included in
the BEST paper, ``The Quiet Crisis'' which we present to you today, and I
understand you have the series of charts as well * * *
COLWELL: Thank you. It is an honor to be part of todays panel on
building the U.S. science ,
engineering and technology workforce by fully developing the nation's diverse
human resources. The United States has become increasingly diverse in recent
decades and will move steadily in the direction of greater diversity in the
future. The Bureau of Labor Statistics projects, for the decade 1998--2008,
that the general labor force growth rates of minorities will more than triple
the overall growth rate. But, we're not making comparable progress in changing
the composition of the science
and engineering workforce. It looks the same as it has for generations. We
need the talent of every worker in order to keep our nation competitive and
prosperous now and in the future. And in the post-9/11 world, we need to also
focus more of our talent on homeland security. We live in a unique time in
which every citizen must ``count'' for opportunities and must be ``counted''
for contributions to our society's well being. The well being of individuals
and of the nation will depend on knowledge and skills in science , engineering& and
technology. How well we prepare our human resource in these areas will
determine how well we are prepared as a nation in this new century * * *
Mr. BERKELEY: Thank you, Chair MORELLA. I thank you for your
persistence. I think persistence is a valuable, valuable attribute. We will
not win this problem without staying focused and persistent. You might ask
what does the stock market have to do with the education business? I will tell
you: a constant theme of my conversations with the chief executive officers of
the largest technology companies in the county) both in information technology
and biotech, is where are they going to get enough technically trained workers
and that handful of brilliant scientists that make the difference in
breakthroughs? I think that this audience should know that the technology
community has been shaken to its foundation by the loss of U.S. supremacy in
supercomputing. Japan now has supercomputers 30 times more powerful than ours
having followed a technology path that we abandoned about ten years ago * * *
My goal this morning was to affirm to you that the business community is
firmly interested in this endeavor and that we can bring substantial resources
to bear on research-based solutions that are working and are proven to work *
* *
PEARSON: Now I will briefly discuss the objectives of the higher
education panel. First, we wanted to have a comprehensive examination of the
challenge of increasing both the quantity and quality of university graduates
from under-represented groups in science , engineering and technology.
Our second goal was to identify and critically analyze exemplars whose design
principles merit adaptation and replication across the country. The third was
to further develop policy recommendations discussed in ``The Quiet Crisis''
paper. Because higher education provides a strategic bridge between pre K-12
and the workplace, the panel has focused on measurable outcomes reinforced by
the earlier discussions. As you can see, at each segment beyond the high
school level the science and
engineering talent gets smaller and smaller for the whole population in
particular but especially for African Americans, Hispanics, and Native
Americans * * *
FOX: You know it's been over 50 years in which there's been an
explicit compact between the research universities and the government of the
United States that research universities would provide leadership in
developing a workforce that is appropriate for the economic growth of this
nation. That is research universities have pledge to create knowledge, to
provide innovative leaders for developing the frontiers of science , for leading economic
recovery and for providing a workforce that can sustain and create jobs and
wealth for the United States. But over those 50 years, we've not had full
participation as we've heard in the earlier discussions. If we go to K-12 to
look at the roots for this difference in participation level, we're well aware
of the digital divide which is a challenge. But to think of the digital divide
as something that is related only to computer availability minimizes the real
problem * * *
TAPIA: Thank you. My topic is university program leadership,
producing women and under-represented minorities in science and engineering programs at
research universities. I'll start with point one, everything i.e. success or
failure depends on leadership, strong, forceful, respected, effective
leadership. The second point, administration from top to bottom must support
the activity. This is absolutely necessary to promote buy-in at the faculty
level. If the administration doesn't support, then the faculty has a way out,
extremely important to have the administration support but they don't do the
activity, they support it. Success in promoting underrepresented minorities
and women in science ,
engineering and mathematics, requires a champion. The champion must be a
respected member of the faculty. The champion will serve as an advocate. We
can't continue to have a two-tier or fragment our system. Minority-serving
institutions do good jobs. Ph.D. producing at minority-serving institutions
will not produce the scientific leaders of the community or the professional
organizations. The outreach activity is not rewarded at research universities.
Often this activity will jeopardize the university career of a young faculty
member * * *
DAVIS: Good morning. The University of Michigan Women in Science and Engineering Residence
Program, called the WISE-RP, is a living-learning community for 120 first year
women and 33 sophomore or junior level women interested in science , mathematics, and
engineering. The primary purpose of the WISE-RP is to provide academic and
personal support to undergraduate women, including historically
underrepresented minority women, by providing an academically and socially
supportive community. WISE-RP provides contiguous living arrangements in a
mid-size coed residence hall of 500 students * * *
BAKER: The Meyerhoff Scholarship Program is designed to address the
particular needs of African American students in science , mathematics, and
engineering. Key components of the Program include: an in-depth screening
process that seeks students genuinely committed to a postgraduate
research-based degree and career; a comprehensive four-year scholarship
package; a mandatory academic Summer Bridge program for incoming freshmen;
study groups; community living and regular ``Meyerhoff Family'' Meetings;
personalized advising and counseling; tutoring summer research internships
with companies, federal agencies, and other research universities; mentoring;
faculty involvement; administrative involvement; family involvement; community
service; and extensive program evaluation. Eighty-eight percent of
participants are pursuing post-graduate degrees primarily doctorates in science , mathematics, and engineering
or medical/ doctorate degrees, at institutions ranging from Harvard, Stanford,
Berkeley, Yale, Duke, Johns Hopkins and Oxford * * *
ARVIZU: It is established we have a serious problem. The questions before us are, what
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RAYMAN: To build upon the rationale for diversity presented by my
honored colleagues Dan Arvizu, and Dr. Shirley Jackson I will address the
crisis we are facing in our nation's science and technology workplaces. We
face a work world in the midst of an enormous change. Nothing is the same as
it was 50 years ago or even 20 years ago. And more dramatic changes are
anticipated over the coming decades. We face a crisis on three dimensions:
Where will the new science jobs
be? Who will fill the jobs? How the work will get done or, what is the
changing nature of work? It is important to note that while we compete for
science and technology workers
within the context of a global economy, the diversity of our own nation's
labor force provides a comparative advantage. Diversity is a key building
block of economic competitiveness and scientific discovery and innovation. In
addition to the change in skill sets, and demographics, the nature of work
itself is undergoing significant transformation brought about by the changing
business climate and technological advances. These changes include: companies
organized so labor is a variable, not a fixed cost; a workforce built on the
premise of teams that can be easily assembled and disassembled; a nimble
workforce whereby workers hopscotch from job to job, even career to career,
carrying their set of skills and abilities on their backs and desperately
needing new policies in portability in health insurance, pension plans and
other benefits * * *
SMITH: I believe business/industry/government and the great
educational institutions of this country must take the lead in defining the
strategies necessary to maintain our leadership position in the world. From
the intense discussions of our workforce panel, we are entertaining a
two-pronged agenda to: Drive change within organizations and to drive change
externally among industry, academe, and government as employers to promote a
diverse workforce. Let's look at an example that comes to mind which
illustrates an approach utilized by my former colleagues at duPont. We
established a set of principles that are still effective in increasing our
company's diversity internally. These principles are: (1) Leadership must come
from the top echelons of the organization. Managers must ``walk the talk.'' An
institution must have highly visible, fully involved, visionary leaders in
order to make valuing diversity efforts a success. (2) Accountability for
personal and organizational behavior must exist. A system must be in place to
motivate behavior change and that means diversity performance must be linked
to compensation and advancement. (3) Valuing diversity must be perceived as a
critical part to the success of the organization i.e., a business imperative.
(4) Education around this issue must not only raise awareness, but more
importantly, develop skills needed to work in and manage a multicultural
organization. (5) Finally, effective mentoring programs for women and
underrepresented minorities must be developed and implemented * * *
MALCOM: When President Bush and the nation's governors met in
Charlottesville in 1989, they established ambitious national education goals.
These goals were affirmed and expanded upon by the Congress of the United
States. The goals included that we would raise achievement levels in all
academic fields and, even more ambitiously, that we would be first in the
world in mathematics and science
achievement by the year 2000. When in 1995, the results were announced from
the Third International Mathematics and Science Study (TLMSS), there was good
news and bad news about science
and mathematics achievement of U.S. students when compared with the
performance of students from other countries in the world. The results of
TIMSS showed U.S. fourth grade students comparing quite favorably in their
performance on tests of science
, both scoring far above average and among the top tier of countries.
Performance by fourth graders in mathematics was about at the average compared
with other countries involved in TIMSS. When fourth grade students were tested
in eighth grade in 1999, performance had fallen to the average levels in science and slipped in mathematics as
well. The performance of 12th graders in science and mathematics was near the
bottom. This underperformance by U.S. students was true even for our brightest
and best performing students, such as those taking advanced placement courses
in physics. The current structures provide neither equal chances nor a level
playing field, and it is these circumstances that we must remedy if we are to
maximally utilize the talents of all of our young people. These must include:
Vigorous support for systemic reform efforts to improve the quality of the
curriculum, teaching and support within our schools, with assurance that
opportunities for study of science and mathematics will be
extended to all students; specific interventions that allow students to
explore STEM fields, such as through summer camps, research apprenticeships,
after school science clubs,
museum activities and media-reinforced learning opportunities; outreach to
parents and communities to help them organize activities at home and in the
community to support science ,
technology, engineering, and mathematics aspirations, to build demand for
school reform, and to increase community-based opportunities for learning
beyond school * * *
GARCIA: Clearly, in this endeavor, we know the pathway to science and technology of the future
begins in the Pre K-12 sector, if not earlier. So our efforts at BEST are to
look very carefully at the beginning pathway or the beginning steps into science , technology and mathematics.
Our students depend heavily on the public school system and other alternatives
to move forward to those futures that we believe should be available to all
children in this country. BEST has a particular way in which we are striving
to open the doors to the world of science , technology and mathematics
for all children. First, the membership of BEST feels that we need to
understand what is now working for students in this arena--particularly with
our target populations in mind. BEST is attending to the strict notion that we
need to understand empirically ``what works''. We need to have good
research-based information, solid evidence, and clear knowledge about which
program make a difference for whom, how they make a difference, and what are
the actual results. The reason we are so attached to this notion of having
solid evidence for what works is that if anyone needs to move forward and
invest resources, whether they be in the public or in the private sector, we
must be able to inform them as to whether their investments will pay off. It
is only fair to those individuals who implement programs or systemic efforts
to change systems in response to this need, to assure them that all children
will be served by their interventions and/or changes. Thus, we need the
absolute superior evidence. Therefore, BEST, in lending the text to the
context that Shirley has presented, needs to understand in this area of
urgency, what BEST programs, and what BEST systemic changes really do work * *
*
ALSON: I am in my eleventh year as superintendent of Evanston Township High School in Evanston, Illinois. This large comprehensive high school with a national reputation for excellence has 3200 students and is quite diverse--racially, socioeconomically and linguistically. Student achievement, despite impressive gains, continues to reveal racial and class achievement disparities. Yet, we have made significant strides, for example, in boosting female and minority enrollment in Calculus and Advanced Placement Science courses. A little over three years ago I founded an organization known as the Minority Student Achievement Network. We are 15 urban-suburban districts devoted to discovering, developing and implementing strategies to eliminate the racial achievement gap. Our strategies include conferences where we learn directly from students and teachers, and research where teachers are directly engaged in studies with university professors. My professional experience has revealed the extensive gap in education between research and practice. Quite frankly, it is the rare exception when districts or schools are able to successfully bridge that gap. Practitioners generally receive very little training in the interpretation or use of research findings. In fact, research methodology that meets the highest standards of reliability and validity are quite often written in language that is unfamiliar to the teacher or administrator. Our worlds usually do not overlap sufficiently for us to make timely use of significant findings. Simply put, while it would be far preferable to examine our practice from the vantage of current research, the barriers of time, language and politics often interfere * * *
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PETERSEN: Thank you for this opportunity to speak with you on a
topic about which I am most passionate--not only because I am a scientist but
also because I have seen individuals, families and communities transformed by
opportunity that for some, has been unavailable. The opportunity to gain an
education and pursue a career in engineering or the sciences is still precious
in our society. Today, more than ever, we must support the interests in science and technology for all with
talent and energy, and especially those who have been underrepresented. I'm
here today as a scientist who is senior vice president for programs of the W.K
Kellogg Foundation. In this role I've witnessed the kind of creative and
energetic work that can open doors of opportunity for all--girls and boys,
African Americans, Hispanics, and Native Americans, and those who are
physically challenged. Engagement--real engagement--in which institutions of
higher education and communities form lasting relationships that influence,
shape, and promote success in both spheres is rare. More often we see evidence
of unilateral outreach from colleges and universities rather than partnerships
based on true mutual benefit mutual respect, and mutual accountability * * *
WINCE-SMITH: In 1986 the United States was facing one of its most dire economic challenges since the end of World War II: the country slid from being the world's largest creditor to its largest debtor; its position as a global leader in technology and innovation was declining and American industries were losing market share to international competitors. We know that long-term U.S. productivity growth and a subsequent rising standard of living depends on our ability to increase U.S. innovative capacity. This top tier policy issue was the focus of two national innovation summits hosted by Council that convened the nation's top business, government, academic and labor leaders. A key impediment to increasing innovation is our workforce, which comes as no surprise to anyone in this room. Yet, even as demand for science and engineering talent grows, the number of science and technology degrees at the undergraduate and graduate degrees has remained flat or declined in every field outside the life sciences. Boosting the national talent pool in science and engineering requires that the S&E workforce mirror the population at large; we must be able to engage more women and minorities in math and science to sustain our innovation economy. The Council has acted on its commitment to raise the standard of living by initiating programs that encourage excellence in math and science and diversity in the science and technology pipelines--namely getsmarter.org and BEST * * *
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