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Pan-Organizational Summit on the U.S. Science and Engineering Workforce: Meeting Summary (2003)
Government-University-Industry Research Roundtable (GUIRR)

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201
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201
Front Matter (R1-R12)
The U.S. Science & Engineering Workforce: An Unconventional Portrait (1-7)
Position Paper on the U.S. Science & Engineering Workforce (8-17)
Position Paper on the U.S. Science & Engineering Workforce (18-22)
Statement on Workforce Issues (23-28)
The Physics Educated Workforce (29-34)
Foreign Scientists Seen Essential to U.S. Biotechnology (35-36)
Academic Prerequisites for Licensure and Professional Practice (37-39)
Engineering Education and the Science & Engineering Workforce (40-46)
Strengthening Pre-College Science, Math, Engineering and Technology Education: The Technological Literacy and Workforce Imperative (47-51)
A National Strategy to Face Vulnerability in Science Engineering and Technology (52-57)
Position Paper on the U.S. Science & Engineering Workforce (58-67)
Position Statement (68-70)
Building a Pipeline for American Scientists and Engineers (71-78)
Position on the U.S. Science & Engineering Workforce (79-83)
Increasing the Supply of Underrepresented Persons of Color in Science and Engineering Occupations (84-90)
Position Paper on the U.S. Science & Engineering Workforce (91-96)
Inititative on Precollege Science, Math and Technology, Education In Support of the U.S. Science and Engineering Workforce (97-104)
Effects of the Current Economic Downturn on the U.S. Science and Technology Workforce: Long Term Implications (105-108)
Trying Times for U.S. Engineers (109-118)
The Underrepresentation of Women in Engineering and Related Science: Pursuing Two Complementary Paths to Parity (119-126)
NACME, Enginerring, and (127-133)
Skills for a 21st Century Workforce: Can We Meet the Challenge? (134-137)
Transforming the Academic Workplace: Socializing Underrepresented Minorities into Faculty Life (138-144)
Mathematics As a Foundation for a Productive Science and Engineering Workforce (145-148)
Utilization of African American Physicists in the Science & Engineering Workforce (149-155)
Building a Federal Civil Service for the 21st Century: The Challenge of Attracting Great Talent to Government Service (156-160)
Position Statement on the U.S. Science & Engineering Workforce (161-166)
Is There a Shortage of Scientists and Engineers? How Would We Know? (167-179)
Position of the Board of Directors on the U.S. Science & Engineering Workforce (180-187)
U.S. Science and Engineering Workforce: Equity and Participation (188-194)
WEPAN Position Statement (195-200)
Concluding Remarks (201-202)
Appendix A: Keynote Speaker Addresses (203-217)
Appendix B: Non-Profit Organizations Participating in the Pan-Organizational Summit on the U.S. Science and Engineering Workforce (218-219)
Appendix C: Summit Agenda (220-223)
Appendix D: National Academies Publications on the Science & Engineering Workforce, Bibliography (224-228)

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OCR for page 201
Marye Anne Fox, Chancellor, North Carolina State University This Summit revealed what many participants already knew: the U.S. science and engineering workforce includes too few native-born Ameri- cans, with particular underrepresentation among women and minority groups. Most young Americans are choosing careers outside of science, mathematics, and engineering, which are the basis for innovation in the development of new technologies that drive our economy. Our K-12 schools graduate only 27 percent of their students with training in pre- calculus,~ the first stepping-stone to an SHE career. Half of college fresh- men intending to major in SHE abandon that major before their sopho- more year2 one reason our universities rank 61st out of 63 countries in converting college undergraduates to B.S. degreed graduates in the natu- ral science and engineering disciplines.3 Existing workers in several fields notably electrical engineering and computer science find there is only weak supporting infrastructure for the constant retraining required to keep up with their fields (IEEE).4 At every level of education and em- iNational Center for Education Statistics. National Assessment of Educational Progress. Wash- ington, DC: Dept. of Education, 2001. Also available: http://nces.ed.gov/pubs2001/ 2001498.pdf. 2Nancy M. Hewitt and Elaine Seymour. Talking About Leaving: Why Undergraduates Leave the Sciences. Boulder CO: Westview Press, 1999. 3U.S. students graduating with degrees in the natural sciences or engineering as a percent- age of total degrees ranks 61st in a list of 63 countries. National Science Foundation. Science and Engineering Indicators 2002 [Appendix Table 2-18]. Arlington, VA: NSF, 2002. Also available: http: / /www.nsf.gov/sbe/srs/seindO2/start.htm. 4From Instititute for Electrical and Electronics Engineers (IEEE) position paper within.

OCR for page 202
PAN-~CANIZAHONAL SUMMIT ployment, women and minorities are significantly underrepresented in S&E positions.5 By 2010, these "underrepresented" groups will constitute 72 percent of the college-age cohort.6 Yet, despite these shortcomings, American science is still strong and innovative. The combined effects of foreign S&E workers entering this coun- try7 and the ability of U.S. industry to outsource or relocate to other coun- tries~ have meant on a global scale that demand has often adjusted to supply, and vice versa. But the national loss remains: lost jobs and lost op- portunities for new businesses and national leadership. Without broader participation, the technological superiority that has served the U.S. so well may be held captive in the future to an inefficient S&E labor system that threatens our continued ability to lead in scientific innovation. This Summit has been held in order to showcase and consolidate com- munity views on policy directions regarding this complex and urgent is- sue. For over a year, the Government-University-Industry Research Roundtable (GUIRR) has sought to define a common ground on which existing organizations might combine resources to mobilize and tackle areas of mutual interest. Summit presenters identified at least nine such areas of common interest and concern (see introduction). This outcome should help policy leaders focus on those approaches currently receiving the most community support. 5National Science Foundation. Science and Engineering Indicators 2002 (pp. 3-12 to 3-16~. Arlington, VA: NSF, 2002. Also available: http://www.nsf.gov/sbe/srs/seindO2/start.htm. 6In the year 2010, current trends project that 37 percent of the college-age U.S. population will be from minorities of both sexes and another 35 percent of that population will be nonminority women. U.S. Bureau of Census. Projections of the Resident Population by Age, Sex, Race and Hispanic Origin: 1999 to 2100. Washington, DC: Government Printing Office, 2000. Also available: www.census.gov/population/estimates/nation. 7Foreign-born, S&E-trained U.S. scientists and engineers represent 12.2 percent of the total S&E workforce. National Science Foundation. Science and Engineering Indicators 2002 (Text Table 3-24~. Arlington, VA: NSF, 2002. Also available: http://www.nsf.gov/sbe/srs/ seindO2/start.htm. BUS. Department of Commerce. Office of Technology Policy. Globalizing Industrial Re- search and Development. Washington, DC: Government Printing Office, 1999.

Representative terms from entire chapter:

urgent issue