1703 North Beauregard St.
Alexandria, VA 22311-1714
Tel: 1-800-933-ASCD (2723)
8:00 a.m. to 6:00 p.m. eastern time, Monday through Friday
Local to the D.C. area: 1-703-578-9600, press 2
Toll-free from U.S. and Canada: 1-800-933-ASCD (2723), press 2
All other countries: (International Access Code) + 1-703-578-9600, press 2
February 2004 | Volume 61 | Number 5
Improving Achievement in Math and Science
John H. Holloway
The United States has set a national goal of ensuring that each student receives an equitable, high-quality education, and that no child is left behind in this quest. Are we achieving that goal in mathematics education? Not according to the results of the National Assessment of Educational Progress (NAEP). Although all racial/ethnic subgroups have shown improvement since 1990, the 2003 NAEP scores show that white students and Asian/Pacific Islander students continue to outperform black, Hispanic, and American Indian/Alaskan native students at every grade level (National Center for Education Statistics, 2003a).
What causes the continuing minority achievement gap in mathematics and other content areas? Barton (2003) has shown that minority students face numerous academic barriers to achievement, both in the classroom and outside of school. One factor that shows up in his research is that minority students as a group experience a less rigorous curriculum. Lower expectations for these students often preclude the opportunity for them to take more rigorous courses because of inadequate prior preparation.
The U.S. Department of Education report Status and Trends in Hispanic Education (NCES, 2003b) points out that in 1998, approximately one-fourth of Hispanic, black, and American Indian/Alaskan native students (26, 30, and 27 percent, respectively) completed advanced mathematics courses, whereas approximately one-half of white and Asian/Pacific Islander students (45 and 56 percent, respectively) did so. To succeed in mathematics, especially higher-level mathematics such as Algebra II and Calculus, all students must have access to and succeed in such gateway courses as Algebra I. However, this report shows that 59 percent of Hispanics completed only middle-level mathematics courses, 8 percent took low-level courses, and 7 percent completed nonacademic courses or no mathematics courses at all.
This lack of math preparation in the earlier grades takes its toll later on. The Education Statistics Quarterly (NCES, 1999) reports that the underrepresentation of minorities extends to Advanced Placement Calculus. In 1997, 33 of every 1,000 white 12th graders enrolled in this course, but only 7 of every 1,000 black students and 12 of every 1,000 Hispanic students took on this challenge.
To overcome racial inequities in mathematics instruction, the National Council of Teachers of Mathematics (NCTM, 2000), in its latest iteration of standards for school mathematics, suggests six principles:
Research suggests that when these principles are applied to practice, they can improve equity.
Schoenfeld (2002) examined the Pittsburgh, Pennsylvania, school district to find out how a reform curriculum based on the application of the new NCTM standards and principles supported minority students. Under the former traditional curriculum, fewer than one-third of the minority students met or exceeded the skill standard of a reference exam. With the new curriculum in place, more than 50 percent of the minority students met or exceeded the standard. From 1997 to 2000, the proportion of minority students performing well in terms of skills doubled under the new curriculum. This study concluded that to ensure sustained improvement in mathematics instruction, schools must provide a high-quality curriculum; a stable, knowledgeable, and professional teaching community; and high-quality assessment aligned with the curriculum.
Manswell-Butty (2001) conducted research that supported Schoenfeld's conclusions. She found that when minority 12th grade students received reform instruction, they had significantly higher achievement scores than did students receiving traditional instruction. Both Manswell-Butty and Schoenfeld describe the traditional curriculum as one that does not emphasize the kinds of mathematics that would enable students to make sense of the world around them; neither statistics nor mathematical modeling is part of this curriculum. This curriculum focuses on preparing just a portion of the students for college-level work in calculus and contains little or no emphasis on communicating and using mathematical ideas. Instead, it emphasizes computation and arriving at the correct answer. The reform curriculum, in contrast, calls for instruction that provides all students with the mathematical background for quantitative literacy for the workplace and for study at the college level.
Lubienski's (2002) research found that the sooner minority students are introduced to the reform curriculum the better. She found that the past decades of the old drill-and-kill instruction has not produced equitable results.
The quality of teacher-student interactions is another area that has the potential to improve the mathematics achievement of minority students. A review of the research by SciMath and the Minnesota Department of Children, Families, and Learning (1998) found that teacher behaviors make a difference in minority student achievement in mathematics and that minority students benefit from teachers who expect students of all racial, ethnic, and cultural backgrounds to achieve. Such teachers consider students' language, culture, and community as assets rather than liabilities and recognize that all racial/ethnic/cultural groups have contributed to our common mathematics knowledge base. These teachers increase the cognitive level of interactions with students of color using diverse and flexible assessments to determine students' strengths. They use immediate and effective remediation to counteract poor performance results and vary the instructional styles in the classroom.
Current preservice training appears to neglect the important teacher quality of multicultural awareness. Bryan and Atwater (2002) found that preservice science teachers enter their undergraduate programs with little or no intercultural experiences, and they graduate with a worldview that remains limited to their own sociocultural backgrounds. The researchers found that courses focusing on multicultural education—particularly opportunities in the field for prospective science teachers to interact with students of diverse cultures—help develop a multicultural awareness among science teachers.
Kelly (2002) agrees that preservice training has not done enough to help prospective teachers deal with multicultural classrooms. Of the 48 teacher candidates she studied, only five could even describe “equity.” She found that immersing preservice teachers in the study of equity helps most of them identify inequities and builds awareness of classroom gender separation.
Research has shown that we can improve the chances of success for achievement in mathematics for all students. But this can only occur when schools provide students with a rich standards-based curriculum, aligned and articulated across grade levels, that supports high expectations for all students. This curriculum, combined with greater teacher sensitivity to the needs of minority students, can become a powerful force in closing the mathematics achievement gap.
Barton, P. (2003). Parsing the achievement gap. Princeton, NJ: Educational Testing Service.
Bryan, L., & Atwater, M. (2002). Teacher beliefs and cultural models. Science Education, 86(6), 821–839.
Kelly, C. (2002). Creating equitable classroom climates. Child Study Journal, 32(1), 39–52.
Lubienski, S. (2002). Research, reform, and equity in U.S. mathematics education. Mathematical Thinking and Learning, 4(2–3), 103–125.
Manswell-Butty, J. (2001). Teacher instruction, student attitudes, and mathematics performance among 10th and 12th grade black and Hispanic students. Journal of Negro Education, 70(1/2), 19–37.
National Center for Education Statistics [NCES]. (1999). Educational Statistics Quarterly, 1(4). Washington, DC: U.S. Department of Education. Available: http://nces.ed.gov/pubs99/quarterly/winter/3elem/3-esq14-e.html
NCES. (2003a). Mathematics 2003 major results: Subgroup results for the nation [Online]. Available:http://nces.ed.gov/nationsreportcard/mathematicsresults2003
NCES. (2003b). Status and trends in Hispanic education. (NCES Report No. 2003-008). Washington, DC: U.S. Department of Education. Available: http://nces.ed.gov/pubs2003/hispanics/Section9.asp
National Council of Teachers of Mathematics. (2000). Principles and standards for school mathematics. Reston, VA: Author. Available:http://standards.nctm.org/document/index.htm
Schoenfeld, A. (2002). Making mathematics work for all children. Educational Researcher, 31(1), 13–25.
SciMath & Minnesota Department of Children, Families, & Learning. (1998). Best practice: What we know from research about teaching, learning, and assessment. In Minnesota K-12 mathematics framework (pp. 32–40). St. Paul, MN: Author. Available: www.scimathmn.org/frameworks_math.htm
John H. Holloway is Project Director, Educational Testing Service, Rosedale Rd., Princeton, NJ 08541; firstname.lastname@example.org.
Copyright © 2004 by Association for Supervision and Curriculum Development
Subscribe to ASCD Express, our twice-monthly e-mail newsletter, to have practical, actionable strategies and information delivered to your e-mail inbox twice a month.
ASCD respects intellectual property rights and adheres to the laws governing them. Learn more about our permissions policy and submit your request online.