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2016 - Aligning Science Achievement and STEM Expectations for College Success: A Comparative Study of Curricular Standardization

Attribution: Han, Siqi, & Buchmann, Claudia
Researchers: Claudia BuchmannSiqi Han
University Affiliation:
Email: Buchmann.4@osu.edu
Research Question:
This paper examines student science achievement in the precollege years, focusing on students who indicate they plan to major in science or pursue a science career. It compares the United States with other industrialized countries in terms of science achievement and determines the degree to which crossnational variations in standardization of the curriculum are related to science achievement, net of other country-level factors such as teacher quality and economic development.
Published: Yes
Journal Name or Institutional Affiliation: Russel Sage Foundation
Journal Entry: Vol. 2, Number 1, pp. 192-211
Year: 2016
Findings:

– The United States trails most countries in the mean science achievement of the general student population and among students expecting to pursue STEM majors or careers. Lack of curricular standardization in the United States is related to this lower science achievement.
– Countries with higher curricular standardization exhibit higher average science achievement scores; science achievement and students’ future orientation toward science are also better aligned in these countries.
– Although aspiring students in the United States achieve more in the sciences than the general U.S. student population, their mean achievement and proficiency levels are still lower than those of their counterparts in other countries.
– More standardized educational systems show a stronger linkage between science performance and future orientation toward study or a career in science, such that high achievers in science indicate a greater likelihood of pursuing science-based majors and careers in the future. This relationship may be due in part to the fact that standardized systems provide students with valuable information about their standing relative to the general student population that students use in their subsequent educational decisions and career choices.
– It is possible that in countries that lack curricular standardization, such as the United States, students do not receive such clear signals about their performance in specific academic domains and thus their science achievement and their interest in science are less aligned.
– At the individual level, students with higher levels of science self-efficacy and those who spend more time learning science and in science-related activities have higher science achievement scores, net of other factors.

-These findings suggest that devoting more hours of the school day to learning science and providing opportunities for students to engage in science-related activities may be promising avenues to boost student achievement in science.

 

Scholarship Types: Journal Article Reporting Empirical ResearchKeywords: BelongingEngagementGenderSelf-EfficacySTEMRegions: InternationalMethodologies: QuantitativeResearch Designs: Secondary Survey DataAnalysis Methods: Descriptive StatisitcsHierarchal Linear Modeling Sampling Frame:15 year old High School students
Sampling Types: InternationalAnalysis Units: CountryStudentData Types: Quantitative-Longitudinal
Data Description:

Curricular standardization refers to the degree to which students within a nation are exposed to the same curriculum. In this paper, they distinguish between three degrees of curricular standardization: educational systems in which the central government determines the curriculum for all students in the nation; educational systems in which regional or local agencies have some ability to adapt the centrally mandated curriculum; and educational systems in which there is no central government intervention in designing the curriculum, such that students within the same nation may be exposed to very different curricula.

Using data for twenty-seven countries from the 2006 Program for International Student Assessment, the authors compare the United States with other industrialized countries in terms of fifteen-year-olds’ science achievement and their expectations to focus on STEM in the future. Because they are interested in comparing the United States to other industrialized countries, they exclude countries whose gross domestic product (GDP) per capita is below $12,000 in 2005, to produce a sample of 211,766 students in twenty-seven countries.

The authors use two dummy variables- highly standardized curriculum and moderately standardized curriculum- as country-level independent variables, with unstandardized curriculum as the reference category. These analyses do not establish causal relationships between curricular standardization and students’ science performance or their future orientation toward a science major or career. Although we control for several country-level factors for which data are available and that may be related to performance or future orientation, other unobserved country-level factors through which curricular standardization operates are possible. Nonetheless, these analyses can determine whether a correlation between curricular standardization and these outcomes, net of other factors, exists for a wide range of countries.

The authors use use the PISA future orientation index to measure students’ future plans to major in STEM or pursue a STEM career. It is based on students’ level of agreement with four statements: I would like to work in a career involving science; I would like to study science after secondary school; I would like to work on science projects as an adult; I would like to spend my life doing advanced science.

The PISA data include comparable achievement scores for each student. Five plausible values of the science test score were used as a representation of the range of students’ science abilities.

Theoretical Framework:
Relevance:STEM Entrance and Majoring in STEM
Archives: K-16 STEM Abstracts
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