No Evidence American Science Education
is “Failing” & No Evidence of a Shortage of Qualified STEM Professionals
Posted on Science website.
“Transformation is possible
…” (April 19) contains ideas for improvement,
but the suggestions should not be framed as a response to the accusation that
the US has been failing in science education: “…. universities are squandering talent at a
time when U.S. higher education is being criticized for not turning out enough
science-savvy graduates to keep the country competitive” (p. 292).
There is good evidence that
this accusation is false: There is no evidence that American science education
is failing and no evidence that we face a shortage of qualified STEM
professionals.
American
students are doing well not only in science and math but in other subjects as
well. Our unspectacular scores on
international tests are because we have so many students living in poverty,
23%, the second-highest among all industrialized countries. When researchers
control for poverty, American international test scores are at the top of the
world. In fact, middle class American students in well-funded schools outscore
students in nearly all other countries on international tests. Poverty means
poor nutrition, poor health care, and little access to books: All of these have
powerful effects on school performance.
The
US produces more top science students than other countries: On the 2006 PISA
math and science tests, 60,000 American students scored in the top category,
compared to 34,000 Japanese students. Also, American students are taking more
math and science than the economy needs: In 2007, 30% of college-bound
high-school seniors had taken calculus, but only 5% of new openings require a
math/science background.
According to
Rutgers Professor Hal Salzman, there is no shortage of science and technology
graduates. In fact, Salzman has concluded that there are two to three qualified
graduates for each science/tech opening. Studies
have also shown the US is producing more Ph.D.s in science than the market can
absorb.
There
is good evidence that contrary to popular opinion, we are turning out more than
enough “science-savvy graduates.”
Stephen
Krashen
Professor
Emeritus
University
of Southern California
Sources:
Impact
of poverty: Payne, K. and Biddle, B. 1999. Poor school funding, child poverty,
and mathematics achievement. Educational Researcher 28 (6): 4-13; Bracey, G.
2009. The Bracey Report on the Condition of Public Education. Boulder and
Tempe: Education and the Public Interest Center & Education Policy Research
Unit. http://epicpolicy.org/publication/Bracey-Report.
Berliner, D. 2011. The Context for Interpreting PISA Results in the USA:
Negativism, Chauvinism, Misunderstanding, and the Potential to Distort the
Educational Systems of Nations. In Pereyra, M., Kottoff, H-G., & Cowan, R.
(Eds.). PISA under examination: Changing knowledge, changing tests, and
changing schools. Amsterdam: Sense Publishers. Tienken, C. 2010. Common core
state standards: I wonder? Kappa Delta Phi Record 47 (1): 14-17. Carnoy, M and
Rothstein, R. 2013, What Do International
Tests Really Show Us about U.S. Student Performance. Washington DC:
Economic Policy Institute. 2012. http://www.epi.org/).
Levels of poverty: Levels of child poverty: UNICEF Innocenti Research Centre
(2012), ‘Measuring Child Poverty: New league tables of child poverty in the
world’s rich countries’, Innocenti Report Card 10, UNICEF Innocenti
Research Centre, Florence.
“Poverty
means poor nutrition, inadequate health care, and lack of access to books”:
Berliner, D. 2009. Poverty and Potential:
Out-of-School Factors and School Success. Boulder and Tempe: Education and the Public
Interest Center & Education Policy Research Unit. http://epicpolicy.org/publication/poverty-and-potential; Krashen, S. 1997. Bridging inequity with
books. Educational Leadership 55(4): 18-22.
No STEM crisis: Salzman, H. & Lowell, B. L. 2007. Into
the Eye of the Storm: Assessing the Evidence on Science and Engineering Education,
Quality, and Workforce Demand. Available at SSRN: http://ssrn.com/abstract=1034801; Salzman,
H. and Lowell, L. 2008. Making the grade. Nature 453 (1): 28-30.; Teitelbaum,
M. 2007. Testimony before the Subcommittee on Technology and
Innovation. Committee on Science and Technology, U.S. House of Representatives,
Washington, DC, November 6, 2007 ;Toppo,
G. and Vergano, D. 2009. Scientist
shortage? Maybe not. USA Today, August 9, 2009; The Ph.D
Bust: America's Awful Market for Young Scientists—in 7 Charts. http://www.theatlantic.com/business/archive/2013/02/the-phd-bust-americas-awful-market-for-young-scientists-in-7-charts/273339/
No comments:
Post a Comment