How simple arithmetic is taught to young American schoolchildren could explain why they are behind in math scores when compared to students in other industrialized countries. This requires changing how math is taught from the start, according to Nicole M. McNeil, ACE Associate Professor of Psychology at the University of Notre Dame.
"Well over 90 percent of elementary schoolchildren in China solve mathematical equivalence problems correctly, compared to only about 20 percent of children the same age in the U.S.," McNeil says. Recent research suggests this may be due in part to differences in the format and sequence of problems that children learn. McNeil will present her research on August 3 in "Disadvantages of Teaching 2 + 2 = 4: Knowledge of Traditional Arithmetic Hinders Understanding of Math Equivalence," at American Psychological Association's 121st Annual Convention, in Honolulu, Hawaii.
McNeil will discuss American students' difficulty in understating the concept of equivalence in math and describe a recent experiment in which one group of second graders using a nontraditional arithmetic practice workbook gained a better understanding of math equivalence compared to a group using a traditional workbook. The advantage persisted for five to six months.
Also at the APA convention, Anthony C. Derriso, University of Alabama, will present "Intent to Pursue STEM Occupations in a Nationally Representative Sample of U.S. Ninth-Graders," on August 3.
Why more boys than girls say they intend to pursue a STEM career most likely has nothing to do with gender stereotypes or teachers' treating boys and girls differently, according to Derriso.
He will present findings from a recent analysis that revealed U.S. ninth-graders didn't think boys and girls are different in their math and science abilities and that they felt their math and science teachers treated them equally. When boys and girls personally identified with math or science, there were again no differences between the sexes. However, boys made up 61 percent of ninth-graders who said they intended to pursue a STEM career.
The analysis is based on data from the High School Longitudinal Study of 2009 with a nationally representative sample of more than 21,000 ninth-graders in 944 schools from the 50 states and the District of Columbia. "We're going to have to reconsider the long-held associations between traditional gender stereotypes and achievement and explore what is motivating students to make decisions about their careers," Derriso says.
Also, Rena Subotnik, director of the APA Center for Psychology in Schools and Education, will present "The Need for Innovators in STEM," on August 4.
Nearly half of science-oriented students are not pursuing STEM degrees to completion, according to a 2012 report from the President's Council of Advisors on Science and Technology. Subotnik will discuss a potential solution to help fill the national need for future STEM innovators with artists, particularly those in visual and performing arts fields.
"Based on an analysis comparing the preparation of creative scholars and performers, we argue that visual and performing artists bring several advantages to the table based on their unique preparation and training, including a rigorously disciplined approach to work, highly developed aesthetic sense, and mental skills that allow for strategic risk taking," Subotnik says.
A challenge to engaging dually talented individuals in STEM is that it requires two areas of course work and credentials. Completing a design engineering course, for example, may prove too arduous for a painter or sculptor with poor preparation in advanced mathematics. Finding the right approach to address this issue will have enormous benefits for creative advancement in science, technology and engineering, Subotnik says.
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